{ "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "images": [ { "registry_id": "warrior-series01-01-kepler-16-b-2b5e6e", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-16", "mapping_basis": "generation manifest", "filename": "warrior-series01-01-kepler-16-b.jpg", "title": "A Planet with Two Suns", "planet": "Kepler-16 b", "category": "Real exoplanet setting", "series": "warrior-01", "description": "descriptions/warrior-series01-01-kepler-16-b-2b5e6e.html", "image": "images/warrior-series01-01-kepler-16-b.jpg", "scientific_anchor": "Kepler-16 b orbits Kepler-16. The saved catalog gives an orbital period of 228.776 (+0.02/−0.037) days. Its discovery method is recorded as transit. These quantities describe the real astronomical setting behind the illustration. The orbit of Kepler-16 b surrounds both members of its stellar binary. Transits across moving stars are more complicated than a planet repeatedly crossing one stationary stellar disk: the timing and duration depend on where each star is when the planet passes. The binary and planet must be modeled together. The catalog radius is 8.4493 ± 0.0291 Earth radii. The mass entry is 105.833 ± 5.085 Earth masses. The source papers and full table retain the provenance of each parameter.", "scene_assumptions": "The image uses an invented moon as its viewing platform. The large parent planet and two stellar lights express the real binary architecture, while the satellite, atmospheric sky and apparent arrangement are illustrative.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · Kepler-16 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-16%20b" }, { "text": "Doyle et al. 2011", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" }, { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" }, { "text": "Q1-Q8 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 8.4493, "plus": 0.0291, "minus": -0.0291, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_bmasse": { "v": 105.833, "plus": 5.085, "minus": -5.085, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_dens": { "v": 0.964, "plus": 0.047, "minus": -0.046, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbper": { "v": 228.776, "plus": 0.02, "minus": -0.037, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbsmax": { "v": 0.7048, "plus": 0.0011, "minus": -0.0011, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbeccen": { "v": 0.0069, "plus": 0.001, "minus": -0.0015, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbincl": { "v": 90.0322, "plus": 0.0022, "minus": -0.0023, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_insol": { "v": 0.2517, "plus": 0.0012, "minus": -0.0012, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 205.9, "plus": 6.95, "minus": -6.95, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "st_teff": { "v": 4450.0, "plus": 150.0, "minus": -150.0, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "st_rad": { "v": 0.6489, "plus": 0.0013, "minus": -0.0013, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "st_mass": { "v": 0.6897, "plus": 0.0035, "minus": -0.0034, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "st_lum": { "v": -0.90301, "plus": 0.00147, "minus": -0.00148, "limit": 0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } }, "st_age": { "v": 3.8, "plus": 3.7, "minus": -3.7, "limit": 0, "source": { "text": "Q1-Q8 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" } }, "st_met": { "v": -0.3, "plus": 0.2, "minus": -0.2, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "sy_dist": { "v": 75.0852, "plus": 0.1541, "minus": -0.1536, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-16 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series01-01-kepler-16-b-2b5e6e.webp", "sha256": "11010251ae7e66d8b08efba3a7d4c49766be2eb14dbbb6b73eb97573e9b58409", "canonical_original": "World Images/warrior-series01-01-kepler-16-b.jpg", "limitations": "The image uses an invented moon as its viewing platform. The large parent planet and two stellar lights express the real binary architecture, while the satellite, atmospheric sky and apparent arrangement are illustrative. All depicted life and technology are fictional.", "review": "Parent planet and stellar disks are compositionally enlarged; moon orbit, illumination and atmospheric scattering are not solved." }, { "registry_id": "warrior-series01-02-trappist-1-e-fc0e1f", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "TRAPPIST-1", "mapping_basis": "generation manifest", "filename": "warrior-series01-02-trappist-1-e.jpg", "title": "An Earth-sized World in a Compact System", "planet": "TRAPPIST-1 e", "category": "Real exoplanet setting", "series": "warrior-01", "description": "descriptions/warrior-series01-02-trappist-1-e-fc0e1f.html", "image": "images/warrior-series01-02-trappist-1-e.jpg", "scientific_anchor": "TRAPPIST-1 e orbits TRAPPIST-1. The saved catalog gives an orbital period of 6.101013 ± 3.5e-05 days. Its discovery method is recorded as transit. These quantities describe the real astronomical setting behind the illustration. TRAPPIST-1 e belongs to a compact planetary system. Repeated transits constrain size, and gravitational interactions between planets affect transit timing. Those timing variations provide information about masses. Together, mass and radius constrain average density, but they do not uniquely determine interior layers or surface conditions. The catalog radius is 0.92 (+0.013/−0.012) Earth radii. The mass entry is 0.692 ± 0.022 Earth masses. The source papers and full table retain the provenance of each parameter.", "scene_assumptions": "The pictured ground and atmosphere are speculative. A size close to Earth’s does not establish an Earth-like ocean, air pressure or climate.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · TRAPPIST-1 e · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/TRAPPIST-1%20e" }, { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" }, { "text": "Gillon et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017Natur.542..456G/abstract" }, { "text": "Grimm et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..68G/abstract" }, { "text": "Ducrot et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020A&A...640A.112D/abstract" }, { "text": "Piaulet-Ghorayeb et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025ApJ...989..181P/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } ], "measurements": { "pl_rade": { "v": 0.92, "plus": 0.013, "minus": -0.012, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_bmasse": { "v": 0.692, "plus": 0.022, "minus": -0.022, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_dens": { "v": 4.901605, "plus": 0.165408, "minus": -0.181949, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_orbper": { "v": 6.101013, "plus": 3.5e-05, "minus": -3.5e-05, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_orbsmax": { "v": 0.02925, "plus": 0.0025, "minus": -0.0025, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_orbeccen": { "v": 0.0051, "plus": 0.00058, "minus": -0.00058, "limit": 0, "source": { "text": "Grimm et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..68G/abstract" } }, "pl_orbincl": { "v": 89.793, "plus": 0.048, "minus": -0.048, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_insol": { "v": 0.646, "plus": 0.025, "minus": -0.025, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_eqt": { "v": 249.7, "plus": 2.4, "minus": -2.4, "limit": 0, "source": { "text": "Ducrot et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020A&A...640A.112D/abstract" } }, "st_teff": { "v": 2566.0, "plus": 26.0, "minus": -26.0, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "st_rad": { "v": 0.1192, "plus": 0.0013, "minus": -0.0013, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "st_mass": { "v": 0.0898, "plus": 0.0023, "minus": -0.0023, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "st_lum": { "v": -3.25727, "plus": 0.01467, "minus": -0.01518, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "st_age": { "v": 7.6, "plus": 2.2, "minus": -2.2, "limit": 0, "source": { "text": "Piaulet-Ghorayeb et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025ApJ...989..181P/abstract" } }, "st_met": { "v": 0.052, "plus": 0.073, "minus": -0.073, "limit": 0, "source": { "text": "Piaulet-Ghorayeb et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025ApJ...989..181P/abstract" } }, "sy_dist": { "v": 12.42988881, "plus": 0.01870661, "minus": -0.01870661, "limit": 0.0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } } }, "original_context": [], "setting_name": "TRAPPIST-1 e", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series01-02-trappist-1-e-fc0e1f.webp", "sha256": "7eea89367344cf5224207ca6f754cb9eb2d2d8fb09ed5433df711d5f0c01ab3d", "canonical_original": "World Images/warrior-series01-02-trappist-1-e.jpg", "limitations": "The pictured ground and atmosphere are speculative. A size close to Earth’s does not establish an Earth-like ocean, air pressure or climate. All depicted life and technology are fictional.", "review": "Star color, mist and terrain are artistic. Pose and materials are legible; surface habitability is not established." }, { "registry_id": "warrior-series01-03-kepler-34-b-5c4a63", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-34", "mapping_basis": "generation manifest", "filename": "warrior-series01-03-kepler-34-b.jpg", "title": "Orbiting a Binary Star", "planet": "Kepler-34 b", "category": "Real exoplanet setting", "series": "warrior-01", "description": "descriptions/warrior-series01-03-kepler-34-b-5c4a63.html", "image": "images/warrior-series01-03-kepler-34-b.jpg", "scientific_anchor": "Kepler-34 b orbits Kepler-34. The saved catalog gives an orbital period of 288.822 (+0.063/−0.081) days. Its discovery method is recorded as transit. These quantities describe the real astronomical setting behind the illustration. Kepler-34 b moves around two stars rather than a single central sun. In such a system, the distances and directions to both light sources change as the binary and the planet move. A convincing two-sun view requires their positions, sizes and luminosities at a specified epoch. A catalog entry alone does not supply that rendered sky. The catalog radius is 8.564 (+0.135/−0.157) Earth radii. The mass entry is 69.92 (+3.496/−3.178) Earth masses. The source papers and full table retain the provenance of each parameter.", "scene_assumptions": "The orbital room is fictional. Its window offers an illustrative view of the binary setting; the displayed stellar phases and apparent sizes are not an ephemeris calculation.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · Kepler-34 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-34%20b" }, { "text": "Welsh et al. 2012", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" }, { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 8.564, "plus": 0.135, "minus": -0.157, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "pl_bmasse": { "v": 69.92, "plus": 3.496, "minus": -3.178, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "pl_dens": { "v": 0.613, "plus": 0.045, "minus": -0.041, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "pl_orbper": { "v": 288.822, "plus": 0.063, "minus": -0.081, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "pl_orbsmax": { "v": 1.0896, "plus": 0.0009, "minus": -0.0009, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "pl_orbeccen": { "v": 0.182, "plus": 0.016, "minus": -0.02, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "pl_orbincl": { "v": 90.355, "plus": 0.026, "minus": -0.018, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "pl_insol": { "v": 1.2545, "plus": 0.1098, "minus": -0.1098, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 294.42, "plus": 6.48, "minus": -6.48, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "st_teff": { "v": 5913.0, "plus": 130.0, "minus": -130.0, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "st_rad": { "v": 1.1618, "plus": 0.0027, "minus": -0.0031, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "st_mass": { "v": 1.0479, "plus": 0.0033, "minus": -0.003, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "st_lum": { "v": 0.173, "plus": 0.036, "minus": -0.04, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "st_age": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_met": { "v": -0.07, "plus": 0.15, "minus": -0.15, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "sy_dist": { "v": 1800.82, "plus": 87.53, "minus": -79.9, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-34 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series01-03-kepler-34-b-5c4a63.webp", "sha256": "d70491bde81e777aa3654ca55c544381c95d62de0b5cc27ed0b8264980d88a9f", "canonical_original": "World Images/warrior-series01-03-kepler-34-b.jpg", "limitations": "The orbital room is fictional. Its window offers an illustrative view of the binary setting; the displayed stellar phases and apparent sizes are not an ephemeris calculation. All depicted life and technology are fictional.", "review": "The two stellar disks render with notably unequal apparent sizes; this should not be interpreted as a calibrated representation of the binary." }, { "registry_id": "warrior-series01-04-hd-45364-b-91b4ee", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "HD 45364", "mapping_basis": "generation manifest", "filename": "warrior-series01-04-hd-45364-b.jpg", "title": "A Planet Found in Stellar Motion", "planet": "HD 45364 b", "category": "Real exoplanet setting", "series": "warrior-01", "description": "descriptions/warrior-series01-04-hd-45364-b-91b4ee.html", "image": "images/warrior-series01-04-hd-45364-b.jpg", "scientific_anchor": "HD 45364 b orbits HD 45364. The saved catalog gives an orbital period of 225.79 (+0.81/−0.76) days. Its discovery method is recorded as radial velocity. These quantities describe the real astronomical setting behind the illustration. HD 45364 b was detected through shifts in its star’s spectrum. Orbital motion changes the component of the star’s velocity along our line of sight, alternately shifting spectral features toward shorter and longer wavelengths. The signal constrains an orbit and a mass multiplied by the sine of the orbital inclination. The catalog radius of 9.03 Earth radii is calculated, not directly measured. The mass entry, 60.16491745 (+1.97054/−2.00232) Earth masses, is M sin i: a minimum mass unless the inclination is known. The source papers and full table retain the provenance of each parameter.", "scene_assumptions": "The ice moon in the artwork is invented. Radial-velocity detection does not provide an image of the planet’s clouds, a moon census or a surface map.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · HD 45364 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/HD%2045364%20b" }, { "text": "Li et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..163L/abstract" }, { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" }, { "text": " Correia et al. 2009 ", "url": "https://ui.adsabs.harvard.edu/abs/2009A&A...496..521C/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 9.03, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_bmasse": { "v": 60.16491745, "plus": 1.97053612, "minus": -2.00231896, "limit": 0, "source": { "text": "Li et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..163L/abstract" } }, "pl_dens": { "v": 0.449, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 225.79, "plus": 0.81, "minus": -0.76, "limit": 0, "source": { "text": "Li et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..163L/abstract" } }, "pl_orbsmax": { "v": 0.6793, "plus": 0.0016, "minus": -0.0015, "limit": 0, "source": { "text": "Li et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..163L/abstract" } }, "pl_orbeccen": { "v": 0.067, "plus": 0.016, "minus": -0.016, "limit": 0, "source": { "text": "Li et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..163L/abstract" } }, "pl_orbincl": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_insol": { "v": 1.3804, "plus": 0.0076, "minus": -0.0076, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 301.69, "plus": 3.59, "minus": -3.59, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "st_teff": { "v": 5466.0, "plus": 59.0, "minus": -32.0, "limit": 0, "source": { "text": "Li et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..163L/abstract" } }, "st_rad": { "v": 0.89, "plus": 0.01, "minus": -0.02, "limit": 0, "source": { "text": "Li et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..163L/abstract" } }, "st_mass": { "v": 0.82, "plus": 0.05, "minus": -0.05, "limit": 0, "source": { "text": "Li et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..163L/abstract" } }, "st_lum": { "v": -0.19586, "plus": 0.00136, "minus": -0.00137, "limit": 0, "source": { "text": "Li et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..163L/abstract" } }, "st_age": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_met": { "v": -0.17, "plus": 0.01, "minus": -0.01, "limit": 0, "source": { "text": " Correia et al. 2009 ", "url": "https://ui.adsabs.harvard.edu/abs/2009A&A...496..521C/abstract" } }, "sy_dist": { "v": 34.354, "plus": 0.0376, "minus": -0.0375, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "HD 45364 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series01-04-hd-45364-b-91b4ee.webp", "sha256": "1c62b492c9a650b782a1ae96014106882b8dbf009ea10917e2ad6c3ad4608c8d", "canonical_original": "World Images/warrior-series01-04-hd-45364-b.jpg", "limitations": "The ice moon in the artwork is invented. Radial-velocity detection does not provide an image of the planet’s clouds, a moon census or a surface map. All depicted life and technology are fictional.", "review": "Frosted armor, hard shadows and a crescent planet support the airless setting; satellite distance and planetary phase are not calculated." }, { "registry_id": "warrior-series01-05-kepler-47-c-6d200e", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-47", "mapping_basis": "generation manifest", "filename": "warrior-series01-05-kepler-47-c.jpg", "title": "The Outer World of Kepler-47", "planet": "Kepler-47 c", "category": "Real exoplanet setting", "series": "warrior-01", "description": "descriptions/warrior-series01-05-kepler-47-c-6d200e.html", "image": "images/warrior-series01-05-kepler-47-c.jpg", "scientific_anchor": "Kepler-47 c orbits Kepler-47. The saved catalog gives an orbital period of 303.227 (+0.062/−0.027) days. Its discovery method is recorded as transit. These quantities describe the real astronomical setting behind the illustration. Kepler-47 c is part of a system with several planets orbiting a stellar pair. The system demonstrates that a circumbinary environment can host more than one planetary orbit. Comparing the planetary periods describes the architecture, while detailed gravitational modeling is needed to evaluate orbital evolution. The catalog radius is 4.65 (+0.09/−0.07) Earth radii. The mass entry is 3.17 (+2.18/−1.25) Earth masses. The source papers and full table retain the provenance of each parameter.", "scene_assumptions": "The atmospheric habitat is fictional. Gas clouds, lighting and any protective structure shown here are extrapolations rather than resolved observations.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · Kepler-47 c · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-47%20c" }, { "text": "Orosz et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....157..174O/abstract" }, { "text": " Orosz et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Sci...337.1511O/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 4.65, "plus": 0.09, "minus": -0.07, "limit": 0, "source": { "text": "Orosz et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....157..174O/abstract" } }, "pl_bmasse": { "v": 3.17, "plus": 2.18, "minus": -1.25, "limit": 0, "source": { "text": "Orosz et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....157..174O/abstract" } }, "pl_dens": { "v": 0.17, "plus": 0.09, "minus": -0.07, "limit": 0, "source": { "text": "Orosz et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....157..174O/abstract" } }, "pl_orbper": { "v": 303.227, "plus": 0.062, "minus": -0.027, "limit": 0, "source": { "text": "Orosz et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....157..174O/abstract" } }, "pl_orbsmax": { "v": 0.9638, "plus": 0.0041, "minus": -0.0044, "limit": 0, "source": { "text": "Orosz et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....157..174O/abstract" } }, "pl_orbeccen": { "v": 0.044, "plus": 0.029, "minus": -0.019, "limit": 0, "source": { "text": "Orosz et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....157..174O/abstract" } }, "pl_orbincl": { "v": 90.1925, "plus": 0.0055, "minus": -0.0042, "limit": 0, "source": { "text": "Orosz et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....157..174O/abstract" } }, "pl_insol": { "v": 0.9037, "plus": 0.0722, "minus": -0.0722, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 267.82, "plus": 4.84, "minus": -4.84, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "st_teff": { "v": 5636.0, "plus": 100.0, "minus": -100.0, "limit": 0, "source": { "text": " Orosz et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Sci...337.1511O/abstract" } }, "st_rad": { "v": 0.936, "plus": 0.005, "minus": -0.005, "limit": 0, "source": { "text": "Orosz et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....157..174O/abstract" } }, "st_mass": { "v": 0.957, "plus": 0.013, "minus": -0.015, "limit": 0, "source": { "text": "Orosz et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....157..174O/abstract" } }, "st_lum": { "v": -0.076, "plus": 0.033, "minus": -0.036, "limit": 0, "source": { "text": " Orosz et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Sci...337.1511O/abstract" } }, "st_age": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_met": { "v": -0.25, "plus": 0.08, "minus": -0.08, "limit": 0, "source": { "text": " Orosz et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Sci...337.1511O/abstract" } }, "sy_dist": { "v": 1025.02, "plus": 30.6445, "minus": -30.6445, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-47 c", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series01-05-kepler-47-c-6d200e.webp", "sha256": "8f3327cf8f649455ad175220fd5df18be3cef078308a0e15b9dbabb02f8e9622", "canonical_original": "World Images/warrior-series01-05-kepler-47-c.jpg", "limitations": "The atmospheric habitat is fictional. Gas clouds, lighting and any protective structure shown here are extrapolations rather than resolved observations. All depicted life and technology are fictional.", "review": "Storm height, colors and visibility of stars through the illustrated upper atmosphere are stylized." }, { "registry_id": "warrior-series01-06-proxima-cen-b-853965", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Proxima Cen", "mapping_basis": "generation manifest", "filename": "warrior-series01-06-proxima-cen-b.jpg", "title": "A Nearby World, Indirectly Measured", "planet": "Proxima Cen b", "category": "Real exoplanet setting", "series": "warrior-01", "description": "descriptions/warrior-series01-06-proxima-cen-b-853965.html", "image": "images/warrior-series01-06-proxima-cen-b.jpg", "scientific_anchor": "Proxima Cen b orbits Proxima Cen. The saved catalog gives an orbital period of 11.18465 ± 0.00053 days. Its discovery method is recorded as radial velocity. These quantities describe the real astronomical setting behind the illustration. Proxima Cen b is known through the motion it induces in its red-dwarf host. The radial-velocity signal supplies a minimum mass, because an unknown orbital inclination changes the observed velocity amplitude. The saved radius estimate comes from a mass–radius relation rather than a measured transit. The catalog radius of 1.02 Earth radii is calculated, not directly measured. The mass entry, 1.055 ± 0.055 Earth masses, is M sin i: a minimum mass unless the inclination is known. The source papers and full table retain the provenance of each parameter.", "scene_assumptions": "The surface and sky are imagined. Neither a minimum mass near Earth’s nor the planet’s orbital distance establishes breathable air, a particular terrain or liquid surface water.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · Proxima Cen b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Proxima%20Cen%20b" }, { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" }, { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" }, { "text": "Anglada-Escudé et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016Natur.536..437A/abstract" }, { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 1.02, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_bmasse": { "v": 1.055, "plus": 0.055, "minus": -0.055, "limit": 0, "source": { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" } }, "pl_dens": { "v": 5.46, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 11.18465, "plus": 0.00053, "minus": -0.00053, "limit": 0, "source": { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" } }, "pl_orbsmax": { "v": 0.04848, "plus": 0.00029, "minus": -0.00029, "limit": 0, "source": { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" } }, "pl_orbeccen": { "v": 0.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" } }, "pl_orbincl": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_insol": { "v": 0.641, "plus": 0.065, "minus": -0.065, "limit": 0, "source": { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" } }, "pl_eqt": { "v": 218.0, "plus": 18.0, "minus": -18.0, "limit": 0, "source": { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" } }, "st_teff": { "v": 2900.0, "plus": 100.0, "minus": -100.0, "limit": 0, "source": { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" } }, "st_rad": { "v": 0.141, "plus": 0.021, "minus": -0.021, "limit": 0, "source": { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" } }, "st_mass": { "v": 0.1221, "plus": 0.0022, "minus": -0.0022, "limit": 0, "source": { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" } }, "st_lum": { "v": -2.82102, "plus": 0.02242, "minus": -0.02364, "limit": 0, "source": { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" } }, "st_age": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_met": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "sy_dist": { "v": 1.30119, "plus": 0.00034, "minus": -0.00035, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Proxima Cen b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series01-06-proxima-cen-b-853965.webp", "sha256": "79bf1f208dbc1a53493c8071b2a4f349d5da745fd2a785faabb0f7200c5bfbff", "canonical_original": "World Images/warrior-series01-06-proxima-cen-b.jpg", "limitations": "The surface and sky are imagined. Neither a minimum mass near Earth’s nor the planet’s orbital distance establishes breathable air, a particular terrain or liquid surface water. All depicted life and technology are fictional.", "review": "The star appears strongly red and enlarged; this is an atmospheric and exposure choice, not a measured visible sky." }, { "registry_id": "warrior-series01-07-kepler-1647-b-c9cc02", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-1647", "mapping_basis": "generation manifest", "filename": "warrior-series01-07-kepler-1647-b.jpg", "title": "A Long Orbit Around Two Stars", "planet": "Kepler-1647 b", "category": "Real exoplanet setting", "series": "warrior-01", "description": "descriptions/warrior-series01-07-kepler-1647-b-c9cc02.html", "image": "images/warrior-series01-07-kepler-1647-b.jpg", "scientific_anchor": "Kepler-1647 b orbits Kepler-1647. The saved catalog gives an orbital period of 1107.5923 ± 0.0227 days. Its discovery method is recorded as transit. These quantities describe the real astronomical setting behind the illustration. Kepler-1647 b takes roughly three Earth years to complete an orbit around its two host stars. A long orbital period means fewer transit opportunities within a survey’s observing baseline. In a binary system, those crossings also depend on the positions of both stars, complicating the connection between a transit sequence and an orbit. The catalog radius is 11.8739 ± 0.1377 Earth radii. The mass entry is 483 ± 206 Earth masses. The source papers and full table retain the provenance of each parameter.", "scene_assumptions": "The atmospheric moon is a fictional vantage. A moon’s existence, orbital stability and local weather would require evidence and modeling beyond the discovery of its parent planet.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · Kepler-1647 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-1647%20b" }, { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 11.8739, "plus": 0.1377, "minus": -0.1377, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "pl_bmasse": { "v": 483.0, "plus": 206.0, "minus": -206.0, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "pl_dens": { "v": 1.59, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 1107.5923, "plus": 0.0227, "minus": -0.0227, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "pl_orbsmax": { "v": 2.7205, "plus": 0.007, "minus": -0.007, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "pl_orbeccen": { "v": 0.0581, "plus": 0.0689, "minus": -0.0689, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "pl_orbincl": { "v": 90.0972, "plus": 0.0035, "minus": -0.0035, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "pl_insol": { "v": 0.5956, "plus": 0.0339, "minus": -0.0339, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 242.92, "plus": 3.94, "minus": -3.94, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "st_teff": { "v": 6210.0, "plus": 100.0, "minus": -100.0, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "st_rad": { "v": 1.7903, "plus": 0.0055, "minus": -0.0055, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "st_mass": { "v": 1.2207, "plus": 0.0112, "minus": -0.0112, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "st_lum": { "v": 0.64425, "plus": 0.0239, "minus": -0.02529, "limit": 0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } }, "st_age": { "v": 4.4, "plus": 0.25, "minus": -0.25, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "st_met": { "v": -0.14, "plus": 0.05, "minus": -0.05, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "sy_dist": { "v": 1212.45, "plus": 22.335, "minus": -22.335, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-1647 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series01-07-kepler-1647-b-c9cc02.webp", "sha256": "2f73631c4dbd82904ae23ff402cc46e4e2b805f6a5c0b67b8ef04fc943ff73f2", "canonical_original": "World Images/warrior-series01-07-kepler-1647-b.jpg", "limitations": "The atmospheric moon is a fictional vantage. A moon’s existence, orbital stability and local weather would require evidence and modeling beyond the discovery of its parent planet. All depicted life and technology are fictional.", "review": "Two stars and a large parent disk are illustrative; no stable moon orbit or local illumination model has been established." }, { "registry_id": "warrior-series01-08-55-cnc-e-510da9", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "55 Cnc", "mapping_basis": "generation manifest", "filename": "warrior-series01-08-55-cnc-e.jpg", "title": "A Year Shorter Than a Day", "planet": "55 Cnc e", "category": "Real exoplanet setting", "series": "warrior-01", "description": "descriptions/warrior-series01-08-55-cnc-e-510da9.html", "image": "images/warrior-series01-08-55-cnc-e.jpg", "scientific_anchor": "55 Cnc e orbits 55 Cnc. The saved catalog gives an orbital period of 0.7365474 (+1.3e-06/−1.4e-06) days. Its discovery method is recorded as radial velocity. These quantities describe the real astronomical setting behind the illustration. 55 Cnc e completes an orbit in less than an Earth day. Its measured size and mass distinguish it from a Jupiter-scale gas giant, while the close orbit makes stellar heating a central part of any physical interpretation. Orbital period, rotation period and atmospheric circulation describe different processes and should not be treated as interchangeable. The catalog radius is 1.875 ± 0.029 Earth radii. The mass entry is 7.99 (+0.32/−0.33) Earth masses. The source papers and full table retain the provenance of each parameter.", "scene_assumptions": "The enclosed orbital viewpoint is invented. Visible surface texture, molten regions and the spectrum transmitted by a protective window are not determined by the catalog’s bulk parameters.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · 55 Cnc e · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/55%20Cnc%20e" }, { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" }, { "text": " McArthur et al. 2004 ", "url": "https://ui.adsabs.harvard.edu/abs/2004ApJ...614L..81M/abstract" }, { "text": "ExoFOP", "url": "https://exofop.ipac.caltech.edu/tess/view_toi.php" }, { "text": "Demory et al. 2011", "url": "https://ui.adsabs.harvard.edu/abs/2011A&A...533A.114D/abstract" }, { "text": "Knapp et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....160...23K/abstract" }, { "text": " Marcy et al. 2002 ", "url": "https://ui.adsabs.harvard.edu/abs/2002ApJ...581.1375M/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 1.875, "plus": 0.029, "minus": -0.029, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "pl_bmasse": { "v": 7.99, "plus": 0.32, "minus": -0.33, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "pl_dens": { "v": 6.66, "plus": 0.43, "minus": -0.4, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "pl_orbper": { "v": 0.7365474, "plus": 1.3e-06, "minus": -1.4e-06, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "pl_orbsmax": { "v": 0.01544, "plus": 5e-05, "minus": -5e-05, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "pl_orbeccen": { "v": 0.05, "plus": 0.03, "minus": -0.03, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "pl_orbincl": { "v": 83.59, "plus": 0.47, "minus": -0.44, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "pl_insol": { "v": 2657.8322, "plus": null, "minus": null, "limit": 0, "source": { "text": "ExoFOP", "url": "https://exofop.ipac.caltech.edu/tess/view_toi.php" } }, "pl_eqt": { "v": 1958.0, "plus": 15.0, "minus": -15.0, "limit": 0, "source": { "text": "Demory et al. 2011", "url": "https://ui.adsabs.harvard.edu/abs/2011A&A...533A.114D/abstract" } }, "st_teff": { "v": 5172.0, "plus": 18.0, "minus": -18.0, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "st_rad": { "v": 0.943, "plus": 0.01, "minus": -0.01, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "st_mass": { "v": 0.905, "plus": 0.015, "minus": -0.015, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "st_lum": { "v": -0.19695, "plus": 0.0125, "minus": -0.01039, "limit": 0, "source": { "text": "Knapp et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....160...23K/abstract" } }, "st_age": { "v": 5.5, "plus": 2.5, "minus": -2.5, "limit": 0, "source": { "text": " Marcy et al. 2002 ", "url": "https://ui.adsabs.harvard.edu/abs/2002ApJ...581.1375M/abstract" } }, "st_met": { "v": 0.35, "plus": 0.1, "minus": -0.1, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "sy_dist": { "v": 12.5855, "plus": 0.0124, "minus": -0.0123, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "55 Cnc e", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series01-08-55-cnc-e-510da9.webp", "sha256": "84d3ce13c92fc4ec118072e257e27e97ab6f0fef8b273192bf3bc3de938a1c83", "canonical_original": "World Images/warrior-series01-08-55-cnc-e.jpg", "limitations": "The enclosed orbital viewpoint is invented. Visible surface texture, molten regions and the spectrum transmitted by a protective window are not determined by the catalog’s bulk parameters. All depicted life and technology are fictional.", "review": "The detailed lava-like fissures and bright limb are speculative and not observational surface mapping." }, { "registry_id": "warrior-series01-09-hd-128311-c-62ece4", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "HD 128311", "mapping_basis": "generation manifest", "filename": "warrior-series01-09-hd-128311-c.jpg", "title": "The Limits of a Distant Planet Portrait", "planet": "HD 128311 c", "category": "Real exoplanet setting", "series": "warrior-01", "description": "descriptions/warrior-series01-09-hd-128311-c-62ece4.html", "image": "images/warrior-series01-09-hd-128311-c.jpg", "scientific_anchor": "HD 128311 c orbits HD 128311. The saved catalog gives an orbital period of 921.538 ± 1.15 days. Its discovery method is recorded as radial velocity. These quantities describe the real astronomical setting behind the illustration. HD 128311 c was discovered through radial velocities. The saved composite entry combines measurements and modeling from several sources; its listed radius is explicitly calculated. A calculated radius may be useful for a schematic comparison, but it is not a detected planetary silhouette or a resolved disk. The catalog radius of 13 Earth radii is calculated, not directly measured. The mass entry is 1204.25787 (+293.675/−137.303) Earth masses. The source papers and full table retain the provenance of each parameter.", "scene_assumptions": "The moon and planetary rings in the artwork are invented. The mass of a known giant does not establish that it possesses the particular satellite or ring architecture shown.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · HD 128311 c · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/HD%20128311%20c" }, { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" }, { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" }, { "text": " Vogt et al. 2005 ", "url": "https://ui.adsabs.harvard.edu/abs/2005ApJ...632..638V/abstract" }, { "text": " Wittenmyer et al. 2009 ", "url": "https://ui.adsabs.harvard.edu/abs/2009ApJS..182...97W/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 13.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_bmasse": { "v": 1204.25787, "plus": 293.67492, "minus": -137.30256, "limit": 0, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "pl_dens": { "v": 3.01, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 921.538, "plus": 1.15, "minus": -1.15, "limit": 0, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "pl_orbsmax": { "v": 1.74, "plus": 0.01, "minus": -0.01, "limit": 0, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "pl_orbeccen": { "v": 0.159, "plus": 0.006, "minus": -0.006, "limit": 0, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "pl_orbincl": { "v": 55.95, "plus": 14.553, "minus": -14.553, "limit": 0, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "pl_insol": { "v": 0.1017, "plus": 0.0012, "minus": -0.0012, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 158.23, "plus": 2.55, "minus": -2.55, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "st_teff": { "v": 4965.0, "plus": 44.0, "minus": -44.0, "limit": 0, "source": { "text": " Wittenmyer et al. 2009 ", "url": "https://ui.adsabs.harvard.edu/abs/2009ApJS..182...97W/abstract" } }, "st_rad": { "v": 0.76, "plus": 0.02, "minus": -0.02, "limit": 0, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "st_mass": { "v": 0.828, "plus": 0.008, "minus": -0.012, "limit": 0, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "st_lum": { "v": -0.5116, "plus": 0.0007, "minus": -0.0007, "limit": 0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } }, "st_age": { "v": 0.96, "plus": null, "minus": null, "limit": 1, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "st_met": { "v": 0.08, "plus": 0.03, "minus": -0.03, "limit": 0, "source": { "text": " Wittenmyer et al. 2009 ", "url": "https://ui.adsabs.harvard.edu/abs/2009ApJS..182...97W/abstract" } }, "sy_dist": { "v": 16.3292, "plus": 0.0199, "minus": -0.0198, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "HD 128311 c", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series01-09-hd-128311-c-62ece4.webp", "sha256": "05a1092d5d12881ab90d1070625144be0d4533b06bd8cebacc85b694eeced7be", "canonical_original": "World Images/warrior-series01-09-hd-128311-c.jpg", "limitations": "The moon and planetary rings in the artwork are invented. The mass of a known giant does not establish that it possesses the particular satellite or ring architecture shown. All depicted life and technology are fictional.", "review": "Ring ellipse and foreground/background occultation appear broadly coherent, but the ring system, moon and viewing geometry are invented." }, { "registry_id": "warrior-series01-10-kepler-35-b-c461f6", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-35", "mapping_basis": "generation manifest", "filename": "warrior-series01-10-kepler-35-b.jpg", "title": "A Giant in a Two-Star System", "planet": "Kepler-35 b", "category": "Real exoplanet setting", "series": "warrior-01", "description": "descriptions/warrior-series01-10-kepler-35-b-c461f6.html", "image": "images/warrior-series01-10-kepler-35-b.jpg", "scientific_anchor": "Kepler-35 b orbits Kepler-35. The saved catalog gives an orbital period of 131.458 (+0.077/−0.105) days. Its discovery method is recorded as transit. These quantities describe the real astronomical setting behind the illustration. Kepler-35 b is a transiting circumbinary planet. Stellar eclipses and planetary transits encode different parts of the system’s geometry. Modeling those events together allows a consistent interpretation of the moving bodies, while a single central-star diagram can only approximate the binary architecture. The catalog radius is 8.16 ± 0.157 Earth radii. The mass entry is 40.363 ± 6.356 Earth masses. The source papers and full table retain the provenance of each parameter.", "scene_assumptions": "The depicted moon and its atmosphere are fictional. Two real host stars justify the theme of two-source lighting, but not the image’s exact stellar separation, disk sizes or shadows.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · Kepler-35 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-35%20b" }, { "text": "Welsh et al. 2012", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" }, { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 8.16, "plus": 0.157, "minus": -0.157, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "pl_bmasse": { "v": 40.363, "plus": 6.356, "minus": -6.356, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "pl_dens": { "v": 0.41, "plus": 0.07, "minus": -0.069, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "pl_orbper": { "v": 131.458, "plus": 0.077, "minus": -0.105, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "pl_orbsmax": { "v": 0.60347, "plus": 0.00101, "minus": -0.00103, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "pl_orbeccen": { "v": 0.042, "plus": 0.007, "minus": -0.004, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "pl_orbincl": { "v": 90.76, "plus": 0.12, "minus": -0.09, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "pl_insol": { "v": 2.5804, "plus": 0.2764, "minus": -0.2764, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 352.89, "plus": 9.45, "minus": -9.45, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "st_teff": { "v": 5606.0, "plus": 150.0, "minus": -150.0, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "st_rad": { "v": 1.0284, "plus": 0.002, "minus": -0.0019, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "st_mass": { "v": 0.8877, "plus": 0.0051, "minus": -0.0053, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "st_lum": { "v": -0.027, "plus": 0.044, "minus": -0.049, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "st_age": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_met": { "v": -0.34, "plus": 0.2, "minus": -0.2, "limit": 0, "source": { "text": " Welsh et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Natur.481..475W/abstract" } }, "sy_dist": { "v": 1819.17, "plus": 120.96, "minus": -107.03, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-35 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series01-10-kepler-35-b-c461f6.webp", "sha256": "43db1234af12d1a16c64c391489af4ca066c694a04f8ff69e2e892b7421dc607", "canonical_original": "World Images/warrior-series01-10-kepler-35-b.jpg", "limitations": "The depicted moon and its atmosphere are fictional. Two real host stars justify the theme of two-source lighting, but not the image’s exact stellar separation, disk sizes or shadows. All depicted life and technology are fictional.", "review": "Planetary disk is dramatically enlarged; the moon orbit and local stellar illumination are not dynamically calibrated." }, { "registry_id": "warrior-series02-01-hd-80606-b-26d40a", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "HD 80606", "mapping_basis": "generation manifest", "filename": "warrior-series02-01-hd-80606-b.jpg", "title": "An Extremely Eccentric Orbit", "planet": "HD 80606 b", "category": "Real exoplanet setting", "series": "warrior-02", "description": "descriptions/warrior-series02-01-hd-80606-b-26d40a.html", "image": "images/warrior-series02-01-hd-80606-b.jpg", "scientific_anchor": "HD 80606 b orbits HD 80606. The saved catalog gives an orbital period of 111.436765 ± 7.4e-05 days. Its discovery method is recorded as radial velocity. These quantities describe the real astronomical setting behind the illustration. HD 80606 b has a strongly elongated orbit. The saved eccentricity is 0.93183 ± 0.00014. For an ideal Keplerian ellipse, the ratio of apastron to periastron distance is (1 + e)/(1 − e), about 28.3 using that central value. This is a calculated distance ratio, not a temperature ratio; atmospheric response has its own timescale. The catalog radius is 11.56766808 ± 0.168135 Earth radii. The mass entry is 1323.46926959 ± 1.49379 Earth masses. The source papers and full table retain the provenance of each parameter.", "scene_assumptions": "The observer’s eclipse and orbital shelter are invented. The epoch, trajectory and geometry required to hide the stellar disk have not been solved for this illustration.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · HD 80606 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/HD%2080606%20b" }, { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" }, { "text": " Naef et al. 2001 ", "url": "https://ui.adsabs.harvard.edu/abs/2001A&A...375L..27N/abstract" }, { "text": "Southworth 2011", "url": "https://ui.adsabs.harvard.edu/abs/2011MNRAS.417.2166S/abstract" }, { "text": " Wittenmyer et al. 2007 ", "url": "https://ui.adsabs.harvard.edu/abs/2007AJ....134.1276W/abstract" }, { "text": "Bonomo et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017A&A...602A.107B/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 11.56766808, "plus": 0.16813471, "minus": -0.16813471, "limit": 0, "source": { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" } }, "pl_bmasse": { "v": 1323.46926959, "plus": 1.49379351, "minus": -1.49379351, "limit": 0, "source": { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" } }, "pl_dens": { "v": 5.08, "plus": 0.32, "minus": -0.32, "limit": 0, "source": { "text": "Southworth 2011", "url": "https://ui.adsabs.harvard.edu/abs/2011MNRAS.417.2166S/abstract" } }, "pl_orbper": { "v": 111.436765, "plus": 7.4e-05, "minus": -7.4e-05, "limit": 0, "source": { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" } }, "pl_orbsmax": { "v": 0.4603, "plus": 0.0021, "minus": -0.0021, "limit": 0, "source": { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" } }, "pl_orbeccen": { "v": 0.93183, "plus": 0.00014, "minus": -0.00014, "limit": 0, "source": { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" } }, "pl_orbincl": { "v": 89.24, "plus": 0.01, "minus": -0.01, "limit": 0, "source": { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" } }, "pl_insol": { "v": 4.6941, "plus": 0.1147, "minus": -0.1147, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 405.0, "plus": 7.0, "minus": -7.0, "limit": 0, "source": { "text": "Southworth 2011", "url": "https://ui.adsabs.harvard.edu/abs/2011MNRAS.417.2166S/abstract" } }, "st_teff": { "v": 5565.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" } }, "st_rad": { "v": 1.05, "plus": 0.01, "minus": -0.01, "limit": 0, "source": { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" } }, "st_mass": { "v": 1.05, "plus": null, "minus": null, "limit": 0, "source": { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" } }, "st_lum": { "v": -0.00237, "plus": 0.00874, "minus": -0.01095, "limit": 0, "source": { "text": " Wittenmyer et al. 2007 ", "url": "https://ui.adsabs.harvard.edu/abs/2007AJ....134.1276W/abstract" } }, "st_age": { "v": 5.9, "plus": 1.6, "minus": -2.0, "limit": 0, "source": { "text": "Bonomo et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017A&A...602A.107B/abstract" } }, "st_met": { "v": 0.35, "plus": null, "minus": null, "limit": 0, "source": { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" } }, "sy_dist": { "v": 66.4711, "plus": 0.1612, "minus": -0.1604, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "HD 80606 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series02-01-hd-80606-b-26d40a.webp", "sha256": "20ba25ce356436eb5f2a18af8a65ca1ab194228381afdbfc9debeedc125b27e4", "canonical_original": "World Images/warrior-series02-01-hd-80606-b.jpg", "limitations": "The observer’s eclipse and orbital shelter are invented. The epoch, trajectory and geometry required to hide the stellar disk have not been solved for this illustration. All depicted life and technology are fictional.", "review": "The star is hidden behind the planet, but the rim brightness, residual cloud detail and eclipse geometry are artistic; no orbit or eclipse duration is modeled." }, { "registry_id": "warrior-series02-02-lhs-1140-b-6bc1f2", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "LHS 1140", "mapping_basis": "generation manifest", "filename": "warrior-series02-02-lhs-1140-b.jpg", "title": "Measuring a Temperate Super-Earth", "planet": "LHS 1140 b", "category": "Real exoplanet setting", "series": "warrior-02", "description": "descriptions/warrior-series02-02-lhs-1140-b-6bc1f2.html", "image": "images/warrior-series02-02-lhs-1140-b.jpg", "scientific_anchor": "LHS 1140 b orbits LHS 1140. The saved catalog gives an orbital period of 24.73723 ± 2e-05 days. Its discovery method is recorded as transit. These quantities describe the real astronomical setting behind the illustration. LHS 1140 b has both a measured mass and a measured radius. Their combination constrains bulk density and makes it possible to compare families of interior models. Several distributions of rock, metal and volatiles can produce related bulk properties, so a density measurement does not directly reveal a coastline or a single atmospheric composition. The catalog radius is 1.73 ± 0.025 Earth radii. The mass entry is 5.6 ± 0.19 Earth masses. The source papers and full table retain the provenance of each parameter.", "scene_assumptions": "The mineral plain is speculative. A measured radius and a favorable irradiation regime do not establish this surface, its pressure or its weather.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · LHS 1140 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/LHS%201140%20b" }, { "text": "Cadieux et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...960L...3C/abstract" }, { "text": "Dittmann et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017Natur.544..333D/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 1.73, "plus": 0.025, "minus": -0.025, "limit": 0, "source": { "text": "Cadieux et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...960L...3C/abstract" } }, "pl_bmasse": { "v": 5.6, "plus": 0.19, "minus": -0.19, "limit": 0, "source": { "text": "Cadieux et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...960L...3C/abstract" } }, "pl_dens": { "v": 5.9, "plus": 0.3, "minus": -0.3, "limit": 0, "source": { "text": "Cadieux et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...960L...3C/abstract" } }, "pl_orbper": { "v": 24.73723, "plus": 2e-05, "minus": -2e-05, "limit": 0, "source": { "text": "Cadieux et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...960L...3C/abstract" } }, "pl_orbsmax": { "v": 0.0946, "plus": 0.0017, "minus": -0.0017, "limit": 0, "source": { "text": "Cadieux et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...960L...3C/abstract" } }, "pl_orbeccen": { "v": 0.043, "plus": null, "minus": null, "limit": 1, "source": { "text": "Cadieux et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...960L...3C/abstract" } }, "pl_orbincl": { "v": 89.86, "plus": 0.04, "minus": -0.04, "limit": 0, "source": { "text": "Cadieux et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...960L...3C/abstract" } }, "pl_insol": { "v": 0.43, "plus": 0.03, "minus": -0.03, "limit": 0, "source": { "text": "Cadieux et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...960L...3C/abstract" } }, "pl_eqt": { "v": 226.0, "plus": 4.0, "minus": -4.0, "limit": 0, "source": { "text": "Cadieux et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...960L...3C/abstract" } }, "st_teff": { "v": 3096.0, "plus": 48.0, "minus": -48.0, "limit": 0, "source": { "text": "Cadieux et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...960L...3C/abstract" } }, "st_rad": { "v": 0.2159, "plus": 0.003, "minus": -0.003, "limit": 0, "source": { "text": "Cadieux et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...960L...3C/abstract" } }, "st_mass": { "v": 0.1844, "plus": 0.0045, "minus": -0.0045, "limit": 0, "source": { "text": "Cadieux et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...960L...3C/abstract" } }, "st_lum": { "v": -2.42022, "plus": 0.033, "minus": -0.03572, "limit": 0, "source": { "text": "Cadieux et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...960L...3C/abstract" } }, "st_age": { "v": 5.0, "plus": null, "minus": null, "limit": -1, "source": { "text": "Cadieux et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...960L...3C/abstract" } }, "st_met": { "v": -0.15, "plus": 0.09, "minus": -0.09, "limit": 0, "source": { "text": "Cadieux et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...960L...3C/abstract" } }, "sy_dist": { "v": 14.9861, "plus": 0.0153, "minus": -0.0152, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "LHS 1140 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series02-02-lhs-1140-b-6bc1f2.webp", "sha256": "704251a64741906953a2babb89a58ecf0af323f9c3f959a0b03a8123d92a65f0", "canonical_original": "World Images/warrior-series02-02-lhs-1140-b.jpg", "limitations": "The mineral plain is speculative. A measured radius and a favorable irradiation regime do not establish this surface, its pressure or its weather. All depicted life and technology are fictional.", "review": "The mineral crust, mountain terrain, atmosphere and stellar color are invented. The rendered stance simplifies the requested radial anatomy; no measured surface composition is implied." }, { "registry_id": "warrior-series02-03-kepler-186-f-043d51", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-186", "mapping_basis": "generation manifest", "filename": "warrior-series02-03-kepler-186-f.jpg", "title": "Radius, Mass and Unequal Certainty", "planet": "Kepler-186 f", "category": "Real exoplanet setting", "series": "warrior-02", "description": "descriptions/warrior-series02-03-kepler-186-f-043d51.html", "image": "images/warrior-series02-03-kepler-186-f.jpg", "scientific_anchor": "Kepler-186 f orbits Kepler-186. The saved catalog gives an orbital period of 129.9441 (+0.0013/−0.0012) days. Its discovery method is recorded as transit. These quantities describe the real astronomical setting behind the illustration. Kepler-186 f illustrates the difference between a measured transit radius and an estimated mass. The saved mass is derived from a mass–radius relationship, not a dynamical mass measurement. The local archive snapshot also carries a controversial-status flag; that flag is retained rather than silently presenting the entry as uncontested. The catalog radius is 1.17 ± 0.08 Earth radii. The listed mass of 1.71 Earth masses is inferred from a mass–radius relationship. The source papers and full table retain the provenance of each parameter.", "scene_assumptions": "The nocturnal ridge and sky are invented. Radius alone does not establish atmospheric retention, surface gravity, climate or the particular terrain depicted.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · Kepler-186 f · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-186%20f" }, { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" }, { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" }, { "text": " Quintana et al. 2014 ", "url": "https://ui.adsabs.harvard.edu/abs/2014Sci...344..277Q/abstract" }, { "text": "Q1-Q17 DR25 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 1.17, "plus": 0.08, "minus": -0.08, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_bmasse": { "v": 1.71, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_dens": { "v": 5.87, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 129.9441, "plus": 0.0013, "minus": -0.0012, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_orbsmax": { "v": 0.432, "plus": 0.171, "minus": -0.053, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_orbeccen": { "v": 0.04, "plus": 0.07, "minus": -0.04, "limit": -1, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_orbincl": { "v": 89.96, "plus": 0.04, "minus": -0.1, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_insol": { "v": 0.3, "plus": 0.1, "minus": -0.15, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_eqt": { "v": 177.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Q1-Q17 DR25 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" } }, "st_teff": { "v": 3755.0, "plus": 90.0, "minus": -90.0, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "st_rad": { "v": 0.523, "plus": 0.023, "minus": -0.021, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "st_mass": { "v": 0.544, "plus": 0.024, "minus": -0.021, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "st_lum": { "v": -1.26, "plus": 0.079, "minus": -0.05, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "st_age": { "v": 4.0, "plus": 0.6, "minus": -0.6, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "st_met": { "v": -0.26, "plus": 0.12, "minus": -0.12, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "sy_dist": { "v": 177.594, "plus": 0.774, "minus": -0.774, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-186 f", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series02-03-kepler-186-f-043d51.webp", "sha256": "d078b2e7e008dc1440787c6423e799d596878cb8b8ce9ab6efd3f7afba4b9ea3", "canonical_original": "World Images/warrior-series02-03-kepler-186-f.jpg", "limitations": "The nocturnal ridge and sky are invented. Radius alone does not establish atmospheric retention, surface gravity, climate or the particular terrain depicted. All depicted life and technology are fictional.", "review": "The star field and galactic band are decorative, not the calculated sky from Kepler-186 f. Foreground lighting and star exposure are combined for legibility." }, { "registry_id": "warrior-series02-04-kepler-413-b-96c6b3", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-413", "mapping_basis": "generation manifest", "filename": "warrior-series02-04-kepler-413-b.jpg", "title": "Transits in a Moving Binary", "planet": "Kepler-413 b", "category": "Real exoplanet setting", "series": "warrior-02", "description": "descriptions/warrior-series02-04-kepler-413-b-96c6b3.html", "image": "images/warrior-series02-04-kepler-413-b.jpg", "scientific_anchor": "Kepler-413 b orbits Kepler-413. The saved catalog gives an orbital period of 66.262 (+0.024/−0.021) days. Its discovery method is recorded as transit. These quantities describe the real astronomical setting behind the illustration. Kepler-413 b orbits a pair of stars. A planet’s track across the sky and the moving positions of the two stellar disks jointly determine whether transits occur and how long they last. Treating the host as a single fixed point would miss the geometry that makes a circumbinary light curve distinctive. The catalog radius is 4.347 ± 0.099 Earth radii. The mass entry is 67 (+22/−21) Earth masses. The source papers and full table retain the provenance of each parameter.", "scene_assumptions": "The atmospheric moon is fictional. Its landscape and visibility of the parent planet are illustrative choices rather than evidence of a detected satellite.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · Kepler-413 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-413%20b" }, { "text": "Kostov et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...784...14K/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 4.347, "plus": 0.099, "minus": -0.099, "limit": 0, "source": { "text": "Kostov et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...784...14K/abstract" } }, "pl_bmasse": { "v": 67.0, "plus": 22.0, "minus": -21.0, "limit": 0, "source": { "text": "Kostov et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...784...14K/abstract" } }, "pl_dens": { "v": 3.2, "plus": 1.0, "minus": -1.0, "limit": 0, "source": { "text": "Kostov et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...784...14K/abstract" } }, "pl_orbper": { "v": 66.262, "plus": 0.024, "minus": -0.021, "limit": 0, "source": { "text": "Kostov et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...784...14K/abstract" } }, "pl_orbsmax": { "v": 0.3553, "plus": 0.002, "minus": -0.0018, "limit": 0, "source": { "text": "Kostov et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...784...14K/abstract" } }, "pl_orbeccen": { "v": 0.1181, "plus": 0.0018, "minus": -0.0017, "limit": 0, "source": { "text": "Kostov et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...784...14K/abstract" } }, "pl_orbincl": { "v": 89.929, "plus": 0.024, "minus": -0.016, "limit": 0, "source": { "text": "Kostov et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...784...14K/abstract" } }, "pl_insol": { "v": 2.9436, "plus": 0.1909, "minus": -0.1909, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 334.96, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "st_teff": { "v": 4700.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Kostov et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...784...14K/abstract" } }, "st_rad": { "v": 0.7761, "plus": 0.0088, "minus": -0.0096, "limit": 0, "source": { "text": "Kostov et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...784...14K/abstract" } }, "st_mass": { "v": 0.82, "plus": 0.015, "minus": -0.014, "limit": 0, "source": { "text": "Kostov et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...784...14K/abstract" } }, "st_lum": { "v": -0.42994, "plus": 0.02689, "minus": -0.02867, "limit": 0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } }, "st_age": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_met": { "v": -0.2, "plus": null, "minus": null, "limit": 0, "source": { "text": "Kostov et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...784...14K/abstract" } }, "sy_dist": { "v": 847.536, "plus": 22.587, "minus": -21.464, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-413 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series02-04-kepler-413-b-96c6b3.webp", "sha256": "fd210d95df271b51e5cffb64830ed469d239366a9723f74f9e7441028dc3eb23", "canonical_original": "World Images/warrior-series02-04-kepler-413-b.jpg", "limitations": "The atmospheric moon is fictional. Its landscape and visibility of the parent planet are illustrative choices rather than evidence of a detected satellite. All depicted life and technology are fictional.", "review": "The moon, pool, glaciers, atmosphere and alien species are fictional. Parent-planet phase, size and binary illumination are illustrative; satellite stability is not established." }, { "registry_id": "warrior-series02-05-toi-1338-b-04e886", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "TOI-1338 A", "mapping_basis": "generation manifest", "filename": "warrior-series02-05-toi-1338-b.jpg", "title": "A Circumbinary Planet Observed in Transit", "planet": "TOI-1338 b", "category": "Real exoplanet setting", "series": "warrior-02", "description": "descriptions/warrior-series02-05-toi-1338-b-04e886.html", "image": "images/warrior-series02-05-toi-1338-b.jpg", "scientific_anchor": "TOI-1338 b orbits TOI-1338 A. The saved catalog gives an orbital period of 95.4001 (+0.0062/−0.0056) days. Its discovery method is recorded as transit. These quantities describe the real astronomical setting behind the illustration. TOI-1338 b is a circumbinary planet even though the catalog’s host field names TOI-1338 A. That naming convention should not be read as a claim that its orbit surrounds only one component. Joint interpretation of stellar and planetary events is essential to the system’s physical model. The catalog radius is 7.661 ± 0.053 Earth radii. The mass entry is 11.3 ± 2.1 Earth masses. The source papers and full table retain the provenance of each parameter.", "scene_assumptions": "The free-fall orbital habitat is invented. The illustration does not establish artificial gravity, a particular station orbit or a calibrated appearance of both stars.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · TOI-1338 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/TOI-1338%20b" }, { "text": "Wang & Liu 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024AJ....168...31W/abstract" }, { "text": "Kostov et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....159..253K/abstract" }, { "text": "Wang & Liu 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024AJ....168...31W/abstract" }, { "text": "ExoFOP", "url": "https://exofop.ipac.caltech.edu/tess/view_toi.php" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 7.661, "plus": 0.053, "minus": -0.053, "limit": 0, "source": { "text": "Wang & Liu 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024AJ....168...31W/abstract" } }, "pl_bmasse": { "v": 11.3, "plus": 2.1, "minus": -2.1, "limit": 0, "source": { "text": "Wang & Liu 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024AJ....168...31W/abstract" } }, "pl_dens": { "v": 0.56, "plus": 0.34, "minus": -0.33, "limit": 0, "source": { "text": "Kostov et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....159..253K/abstract" } }, "pl_orbper": { "v": 95.4001, "plus": 0.0062, "minus": -0.0056, "limit": 0, "source": { "text": "Wang & Liu 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024AJ....168...31W/abstract" } }, "pl_orbsmax": { "v": 0.4607, "plus": 0.0084, "minus": -0.0088, "limit": 0, "source": { "text": "Kostov et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....159..253K/abstract" } }, "pl_orbeccen": { "v": 0.0331, "plus": 0.0022, "minus": -0.0021, "limit": 0, "source": { "text": "Wang & Liu 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024AJ....168...31W/abstract" } }, "pl_orbincl": { "v": 90.494, "plus": 0.013, "minus": -0.014, "limit": 0, "source": { "text": "Wang & Liu 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024AJ....168...31W/abstract" } }, "pl_insol": { "v": 0.9938, "plus": null, "minus": null, "limit": 0, "source": { "text": "ExoFOP", "url": "https://exofop.ipac.caltech.edu/tess/view_toi.php" } }, "pl_eqt": { "v": 254.65, "plus": null, "minus": null, "limit": 0, "source": { "text": "ExoFOP", "url": "https://exofop.ipac.caltech.edu/tess/view_toi.php" } }, "st_teff": { "v": 5723.2, "plus": 57.0, "minus": -57.0, "limit": 0, "source": { "text": "ExoFOP", "url": "https://exofop.ipac.caltech.edu/tess/view_toi.php" } }, "st_rad": { "v": 1.313, "plus": 0.0038, "minus": -0.0038, "limit": 0, "source": { "text": "Wang & Liu 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024AJ....168...31W/abstract" } }, "st_mass": { "v": 1.0936, "plus": 0.0072, "minus": -0.0072, "limit": 0, "source": { "text": "Wang & Liu 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024AJ....168...31W/abstract" } }, "st_lum": { "v": 0.32898, "plus": 0.00639, "minus": -0.00648, "limit": 0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } }, "st_age": { "v": 4.4, "plus": 0.2, "minus": -0.2, "limit": 0, "source": { "text": "Kostov et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....159..253K/abstract" } }, "st_met": { "v": 0.01, "plus": 0.05, "minus": -0.05, "limit": 0, "source": { "text": "Kostov et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....159..253K/abstract" } }, "sy_dist": { "v": 399.017, "plus": 3.162, "minus": -3.113, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "TOI-1338 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series02-05-toi-1338-b-04e886.webp", "sha256": "c6951b11b471e79bb8cea3d4b5e09b7e2565ee20e07276833a01380da7feb9d1", "canonical_original": "World Images/warrior-series02-05-toi-1338-b.jpg", "limitations": "The free-fall orbital habitat is invented. The illustration does not establish artificial gravity, a particular station orbit or a calibrated appearance of both stars. All depicted life and technology are fictional.", "review": "The slack tether and floating pose represent fictional free-fall practice inside a pressure habitat. Planetary cloud appearance, stellar sizes and viewing geometry are not calibrated." }, { "registry_id": "warrior-series02-06-trappist-1-f-01ee2a", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "TRAPPIST-1", "mapping_basis": "generation manifest", "filename": "warrior-series02-06-trappist-1-f.jpg", "title": "Density Beyond the Solar System", "planet": "TRAPPIST-1 f", "category": "Real exoplanet setting", "series": "warrior-02", "description": "descriptions/warrior-series02-06-trappist-1-f-01ee2a.html", "image": "images/warrior-series02-06-trappist-1-f.jpg", "scientific_anchor": "TRAPPIST-1 f orbits TRAPPIST-1. The saved catalog gives an orbital period of 9.20754 ± 3.2e-05 days. Its discovery method is recorded as transit. These quantities describe the real astronomical setting behind the illustration. TRAPPIST-1 f’s mass and radius can be compared with those of its neighboring planets. In a compact system, mutual gravity perturbs otherwise regular transit times; fitting those departures helps constrain the masses. The resulting density informs interior models, but does not identify individual layers uniquely. The catalog radius is 1.045 (+0.013/−0.012) Earth radii. The mass entry is 1.039 ± 0.031 Earth masses. The source papers and full table retain the provenance of each parameter.", "scene_assumptions": "The snowy ground is speculative. Snow requires a composition and a pressure–temperature environment that are not determined merely by an Earth-scale radius.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · TRAPPIST-1 f · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/TRAPPIST-1%20f" }, { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" }, { "text": "Gillon et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017Natur.542..456G/abstract" }, { "text": "Grimm et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..68G/abstract" }, { "text": "Ducrot et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020A&A...640A.112D/abstract" }, { "text": "Piaulet-Ghorayeb et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025ApJ...989..181P/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } ], "measurements": { "pl_rade": { "v": 1.045, "plus": 0.013, "minus": -0.012, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_bmasse": { "v": 1.039, "plus": 0.031, "minus": -0.031, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_dens": { "v": 5.022904, "plus": 0.13784, "minus": -0.159895, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_orbper": { "v": 9.20754, "plus": 3.2e-05, "minus": -3.2e-05, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_orbsmax": { "v": 0.03849, "plus": 0.00033, "minus": -0.00033, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_orbeccen": { "v": 0.01007, "plus": 0.00068, "minus": -0.00068, "limit": 0, "source": { "text": "Grimm et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..68G/abstract" } }, "pl_orbincl": { "v": 89.74, "plus": 0.019, "minus": -0.019, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_insol": { "v": 0.373, "plus": 0.015, "minus": -0.014, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_eqt": { "v": 217.7, "plus": 2.1, "minus": -2.1, "limit": 0, "source": { "text": "Ducrot et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020A&A...640A.112D/abstract" } }, "st_teff": { "v": 2566.0, "plus": 26.0, "minus": -26.0, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "st_rad": { "v": 0.1192, "plus": 0.0013, "minus": -0.0013, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "st_mass": { "v": 0.0898, "plus": 0.0023, "minus": -0.0023, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "st_lum": { "v": -3.25727, "plus": 0.01467, "minus": -0.01518, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "st_age": { "v": 7.6, "plus": 2.2, "minus": -2.2, "limit": 0, "source": { "text": "Piaulet-Ghorayeb et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025ApJ...989..181P/abstract" } }, "st_met": { "v": 0.052, "plus": 0.073, "minus": -0.073, "limit": 0, "source": { "text": "Piaulet-Ghorayeb et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025ApJ...989..181P/abstract" } }, "sy_dist": { "v": 12.42988881, "plus": 0.01870661, "minus": -0.01870661, "limit": 0.0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } } }, "original_context": [], "setting_name": "TRAPPIST-1 f", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series02-06-trappist-1-f-01ee2a.webp", "sha256": "397c45aa9f6d06244a99fc7f8b01e6b24319bd73644b362ed3d6162ac0526003", "canonical_original": "World Images/warrior-series02-06-trappist-1-f.jpg", "limitations": "The snowy ground is speculative. Snow requires a composition and a pressure–temperature environment that are not determined merely by an Earth-scale radius. All depicted life and technology are fictional.", "review": "Snow, clouds, climate and the warrior’s physiology are fictional. The rendered figure is predominantly bipedal rather than the requested four-legged design; caption and story follow the visible figure." }, { "registry_id": "warrior-series02-07-hd-209458-b-fe4488", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "HD 209458", "mapping_basis": "generation manifest", "filename": "warrior-series02-07-hd-209458-b.jpg", "title": "The Scale of a Hot Giant", "planet": "HD 209458 b", "category": "Real exoplanet setting", "series": "warrior-02", "description": "descriptions/warrior-series02-07-hd-209458-b-fe4488.html", "image": "images/warrior-series02-07-hd-209458-b.jpg", "scientific_anchor": "HD 209458 b orbits HD 209458. The saved catalog gives an orbital period of 3.52474859 ± 3.8e-07 days. Its discovery method is recorded as radial velocity. These quantities describe the real astronomical setting behind the illustration. HD 209458 b combines a close orbit with a radius larger than Jupiter’s. A transit measures the size of the occulting disk relative to the star; stellar motion supplies complementary mass information. The two methods probe different observables, and their interpretation depends on the adopted stellar properties. The catalog radius is 15.58051 ± 0.22418 Earth radii. The mass entry is 232.0159 ± 12.7132 Earth masses. The source papers and full table retain the provenance of each parameter.", "scene_assumptions": "The orbital hall is fictional. A giant planet’s measured radius does not provide a solid floor or imply that an ordinary exposed landscape exists at its visible cloud tops.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · HD 209458 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/HD%20209458%20b" }, { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" }, { "text": " Henry et al. 2000 ", "url": "https://ui.adsabs.harvard.edu/abs/2000ApJ...529L..41H/abstract" }, { "text": " Southworth 2010 ", "url": "https://ui.adsabs.harvard.edu/abs/2010MNRAS.408.1689S/abstract" }, { "text": "Bonomo et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017A&A...602A.107B/abstract" }, { "text": "ExoFOP", "url": "https://exofop.ipac.caltech.edu/tess/view_toi.php" }, { "text": "Barstow et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017ApJ...834...50B/abstract" }, { "text": "Kokori et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023ApJS..265....4K/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 15.58051, "plus": 0.22418, "minus": -0.22418, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "pl_bmasse": { "v": 232.0159, "plus": 12.7132, "minus": -12.7132, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "pl_dens": { "v": 0.362, "plus": 0.006, "minus": -0.006, "limit": 0, "source": { "text": " Southworth 2010 ", "url": "https://ui.adsabs.harvard.edu/abs/2010MNRAS.408.1689S/abstract" } }, "pl_orbper": { "v": 3.52474859, "plus": 3.8e-07, "minus": -3.8e-07, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "pl_orbsmax": { "v": 0.04707, "plus": 0.00045, "minus": -0.00047, "limit": 0, "source": { "text": "Bonomo et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017A&A...602A.107B/abstract" } }, "pl_orbeccen": { "v": 0.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "pl_orbincl": { "v": 86.71, "plus": 0.05, "minus": -0.05, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "pl_insol": { "v": 587.098, "plus": null, "minus": null, "limit": 0, "source": { "text": "ExoFOP", "url": "https://exofop.ipac.caltech.edu/tess/view_toi.php" } }, "pl_eqt": { "v": 1459.0, "plus": 12.0, "minus": -12.0, "limit": 0, "source": { "text": " Southworth 2010 ", "url": "https://ui.adsabs.harvard.edu/abs/2010MNRAS.408.1689S/abstract" } }, "st_teff": { "v": 6091.0, "plus": 10.0, "minus": -10.0, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "st_rad": { "v": 1.19, "plus": 0.02, "minus": -0.02, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "st_mass": { "v": 1.23, "plus": 0.09, "minus": -0.09, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "st_lum": { "v": 0.23086, "plus": 0.015, "minus": -0.0123, "limit": 0, "source": { "text": "Barstow et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017ApJ...834...50B/abstract" } }, "st_age": { "v": 3.1, "plus": 0.8, "minus": -0.7, "limit": 0, "source": { "text": "Kokori et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023ApJS..265....4K/abstract" } }, "st_met": { "v": 0.01, "plus": null, "minus": null, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "sy_dist": { "v": 48.3016, "plus": 0.124, "minus": -0.1234, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "HD 209458 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series02-07-hd-209458-b-fe4488.webp", "sha256": "b4a39cf615fbf8402015bcc7f84fab577a535f94ddfbf6e97a636e7d2df4531e", "canonical_original": "World Images/warrior-series02-07-hd-209458-b.jpg", "limitations": "The orbital hall is fictional. A giant planet’s measured radius does not provide a solid floor or imply that an ordinary exposed landscape exists at its visible cloud tops. All depicted life and technology are fictional.", "review": "The station, teacher’s history and species are fictional. The giant’s white-blue cloud pattern, thin limb and reflected lighting are invented visual choices, not resolved observations." }, { "registry_id": "warrior-series02-08-kepler-62-f-3265eb", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-62", "mapping_basis": "generation manifest", "filename": "warrior-series02-08-kepler-62-f.jpg", "title": "An Upper Limit Is Not a Mass", "planet": "Kepler-62 f", "category": "Real exoplanet setting", "series": "warrior-02", "description": "descriptions/warrior-series02-08-kepler-62-f-3265eb.html", "image": "images/warrior-series02-08-kepler-62-f.jpg", "scientific_anchor": "Kepler-62 f orbits Kepler-62. The saved catalog gives an orbital period of 267.291 ± 0.005 days. Its discovery method is recorded as transit. These quantities describe the real astronomical setting behind the illustration. Kepler-62 f has a measured transit radius, but the saved mass entry is an upper bound of 35 Earth masses. Reading that value as the planet’s actual mass would produce a misleading density estimate. A limit defines a constraint; it does not specify where the true value lies within the allowed interval. The catalog radius is 1.41 ± 0.07 Earth radii. Its mass constraint is an upper limit of 35 Earth masses, not a measured mass. The source papers and full table retain the provenance of each parameter.", "scene_assumptions": "The canyon plateau is imagined. The available catalog information does not establish its rock type, atmosphere, erosion history or surface water.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · Kepler-62 f · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-62%20f" }, { "text": "Borucki et al. 2013", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" }, { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" }, { "text": "Weiss et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJS..270....8W/abstract" }, { "text": "Fulton & Petigura 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018AJ....156..264F/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 1.41, "plus": 0.07, "minus": -0.07, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "pl_bmasse": { "v": 35.0, "plus": null, "minus": null, "limit": 1, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "pl_dens": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_orbper": { "v": 267.291, "plus": 0.005, "minus": -0.005, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "pl_orbsmax": { "v": 0.718, "plus": 0.007, "minus": -0.007, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "pl_orbeccen": { "v": 0.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Weiss et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJS..270....8W/abstract" } }, "pl_orbincl": { "v": 89.9, "plus": 0.03, "minus": -0.03, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "pl_insol": { "v": 0.5, "plus": 0.0, "minus": 0.0, "limit": 0, "source": { "text": "Fulton & Petigura 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018AJ....156..264F/abstract" } }, "pl_eqt": { "v": 208.0, "plus": 11.0, "minus": -11.0, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "st_teff": { "v": 4925.0, "plus": 70.0, "minus": -70.0, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "st_rad": { "v": 0.64, "plus": 0.02, "minus": -0.02, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "st_mass": { "v": 0.69, "plus": 0.02, "minus": -0.02, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "st_lum": { "v": -0.678, "plus": 0.04, "minus": -0.043, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "st_age": { "v": 7.0, "plus": 4.0, "minus": -4.0, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "st_met": { "v": -0.37, "plus": 0.04, "minus": -0.04, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "sy_dist": { "v": 300.874, "plus": 1.219, "minus": -1.219, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-62 f", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series02-08-kepler-62-f-3265eb.webp", "sha256": "e586712eff5b6b7dcde2c8789ba8891d24498b5e5e2687ff25e00dfd931c6def", "canonical_original": "World Images/warrior-series02-08-kepler-62-f.jpg", "limitations": "The canyon plateau is imagined. The available catalog information does not establish its rock type, atmosphere, erosion history or surface water. All depicted life and technology are fictional.", "review": "The canyon, mist, apparent vegetation, stone composition and living species are fictional. Depicted muscular effort cannot measure the planet’s gravity or establish its surface conditions." }, { "registry_id": "warrior-series02-09-kepler-47-d-4d5bf1", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-47", "mapping_basis": "generation manifest", "filename": "warrior-series02-09-kepler-47-d.jpg", "title": "Between the Orbits of a Binary System", "planet": "Kepler-47 d", "category": "Real exoplanet setting", "series": "warrior-02", "description": "descriptions/warrior-series02-09-kepler-47-d-4d5bf1.html", "image": "images/warrior-series02-09-kepler-47-d.jpg", "scientific_anchor": "Kepler-47 d orbits Kepler-47. The saved catalog gives an orbital period of 187.366 (+0.069/−0.051) days. Its discovery method is recorded as transit. These quantities describe the real astronomical setting behind the illustration. Kepler-47 d adds another planetary orbit to the Kepler-47 binary system. Its period is shorter than that of Kepler-47 c. Comparing those periods places the planets within the observed architecture, while the mass uncertainties show how much less tightly some physical properties are constrained than the recurrence of transits. The catalog radius is 7.04 (+0.66/−0.49) Earth radii. The mass entry is 19.02 (+23.84/−11.67) Earth masses. The source papers and full table retain the provenance of each parameter.", "scene_assumptions": "The pictured atmospheric moon is invented. The parent planet’s discovery does not validate the satellite’s orbit, cloud layers or apparent size in this sky.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · Kepler-47 d · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-47%20d" }, { "text": "Orosz et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....157..174O/abstract" }, { "text": " Orosz et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Sci...337.1511O/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 7.04, "plus": 0.66, "minus": -0.49, "limit": 0, "source": { "text": "Orosz et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....157..174O/abstract" } }, "pl_bmasse": { "v": 19.02, "plus": 23.84, "minus": -11.67, "limit": 0, "source": { "text": "Orosz et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....157..174O/abstract" } }, "pl_dens": { "v": 0.3, "plus": 0.38, "minus": -0.18, "limit": 0, "source": { "text": "Orosz et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....157..174O/abstract" } }, "pl_orbper": { "v": 187.366, "plus": 0.069, "minus": -0.051, "limit": 0, "source": { "text": "Orosz et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....157..174O/abstract" } }, "pl_orbsmax": { "v": 0.6992, "plus": 0.0031, "minus": -0.0033, "limit": 0, "source": { "text": "Orosz et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....157..174O/abstract" } }, "pl_orbeccen": { "v": 0.024, "plus": 0.025, "minus": -0.017, "limit": 0, "source": { "text": "Orosz et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....157..174O/abstract" } }, "pl_orbincl": { "v": 90.395, "plus": 0.009, "minus": -0.012, "limit": 0, "source": { "text": "Orosz et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....157..174O/abstract" } }, "pl_insol": { "v": 1.7171, "plus": 0.1373, "minus": -0.1373, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 314.44, "plus": 5.69, "minus": -5.69, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "st_teff": { "v": 5636.0, "plus": 100.0, "minus": -100.0, "limit": 0, "source": { "text": " Orosz et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Sci...337.1511O/abstract" } }, "st_rad": { "v": 0.936, "plus": 0.005, "minus": -0.005, "limit": 0, "source": { "text": "Orosz et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....157..174O/abstract" } }, "st_mass": { "v": 0.957, "plus": 0.013, "minus": -0.015, "limit": 0, "source": { "text": "Orosz et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....157..174O/abstract" } }, "st_lum": { "v": -0.076, "plus": 0.033, "minus": -0.036, "limit": 0, "source": { "text": " Orosz et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Sci...337.1511O/abstract" } }, "st_age": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_met": { "v": -0.25, "plus": 0.08, "minus": -0.08, "limit": 0, "source": { "text": " Orosz et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012Sci...337.1511O/abstract" } }, "sy_dist": { "v": 1025.02, "plus": 30.6445, "minus": -30.6445, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-47 d", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series02-09-kepler-47-d-4d5bf1.webp", "sha256": "0bf005723e153306552e9f15109515ee9003bf2fa146ab9a577cdaf2f8f27868", "canonical_original": "World Images/warrior-series02-09-kepler-47-d.jpg", "limitations": "The pictured atmospheric moon is invented. The parent planet’s discovery does not validate the satellite’s orbit, cloud layers or apparent size in this sky. All depicted life and technology are fictional.", "review": "The moon and its cloud-filled valleys are invented. The parent crescent, two suns and local illumination are compositional rather than a solved orbital geometry." }, { "registry_id": "warrior-series02-10-kepler-452-b-5a4cc2", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-452", "mapping_basis": "generation manifest", "filename": "warrior-series02-10-kepler-452-b.jpg", "title": "A Long-Period Transit Signal", "planet": "Kepler-452 b", "category": "Real exoplanet setting", "series": "warrior-02", "description": "descriptions/warrior-series02-10-kepler-452-b-5a4cc2.html", "image": "images/warrior-series02-10-kepler-452-b.jpg", "scientific_anchor": "Kepler-452 b orbits Kepler-452. The saved catalog gives an orbital period of 384.843 (+0.007/−0.012) days. Its discovery method is recorded as transit. These quantities describe the real astronomical setting behind the illustration. Kepler-452 b has a period slightly longer than an Earth year in the saved catalog. Its mass is calculated from a mass–radius relationship, and the local snapshot carries a controversial-status flag. Both qualifications matter when discussing how securely its physical properties are known. The catalog radius is 1.63 (+0.23/−0.2) Earth radii. The listed mass of 3.29 Earth masses is inferred from a mass–radius relationship. The source papers and full table retain the provenance of each parameter.", "scene_assumptions": "The sheltered landscape is fictional. Similar orbital periods do not imply identical stellar irradiation, atmospheres or climates, and no detailed surface is established by the transit data.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · Kepler-452 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-452%20b" }, { "text": "Jenkins et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015AJ....150...56J/abstract" }, { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" }, { "text": "Q1-Q17 DR25 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 1.63, "plus": 0.23, "minus": -0.2, "limit": 0, "source": { "text": "Jenkins et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015AJ....150...56J/abstract" } }, "pl_bmasse": { "v": 3.29, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_dens": { "v": 4.17, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 384.843, "plus": 0.007, "minus": -0.012, "limit": 0, "source": { "text": "Jenkins et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015AJ....150...56J/abstract" } }, "pl_orbsmax": { "v": 1.046, "plus": 0.019, "minus": -0.015, "limit": 0, "source": { "text": "Jenkins et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015AJ....150...56J/abstract" } }, "pl_orbeccen": { "v": 0.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Q1-Q17 DR25 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" } }, "pl_orbincl": { "v": 89.806, "plus": 0.134, "minus": -0.049, "limit": 0, "source": { "text": "Jenkins et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015AJ....150...56J/abstract" } }, "pl_insol": { "v": 1.1, "plus": 0.29, "minus": -0.22, "limit": 0, "source": { "text": "Jenkins et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015AJ....150...56J/abstract" } }, "pl_eqt": { "v": 265.0, "plus": 15.0, "minus": -13.0, "limit": 0, "source": { "text": "Jenkins et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015AJ....150...56J/abstract" } }, "st_teff": { "v": 5757.0, "plus": 85.0, "minus": -85.0, "limit": 0, "source": { "text": "Jenkins et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015AJ....150...56J/abstract" } }, "st_rad": { "v": 1.11, "plus": 0.15, "minus": -0.09, "limit": 0, "source": { "text": "Jenkins et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015AJ....150...56J/abstract" } }, "st_mass": { "v": 1.037, "plus": 0.054, "minus": -0.047, "limit": 0, "source": { "text": "Jenkins et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015AJ....150...56J/abstract" } }, "st_lum": { "v": 0.08448, "plus": 0.01716, "minus": -0.01721, "limit": 0, "source": { "text": "Q1-Q17 DR25 Supplemental KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" } }, "st_age": { "v": 6.0, "plus": 2.0, "minus": -2.0, "limit": 0, "source": { "text": "Jenkins et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015AJ....150...56J/abstract" } }, "st_met": { "v": 0.21, "plus": 0.09, "minus": -0.09, "limit": 0, "source": { "text": "Jenkins et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015AJ....150...56J/abstract" } }, "sy_dist": { "v": 551.727, "plus": 5.236, "minus": -5.141, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-452 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series02-10-kepler-452-b-5a4cc2.webp", "sha256": "6cedeeeafa2b00e7620e2c481ac8be5001e1ae56186ef08dcf98bd4448ce790d", "canonical_original": "World Images/warrior-series02-10-kepler-452-b.jpg", "limitations": "The sheltered landscape is fictional. Similar orbital periods do not imply identical stellar irradiation, atmospheres or climates, and no detailed surface is established by the transit data. All depicted life and technology are fictional.", "review": "The aurora does not establish a measured magnetic field or atmosphere on Kepler-452 b. Lake, mountains, shelter, teacher and apprentice are fiction; stellar exposure is artistic." }, { "registry_id": "warrior-series03-01-psr-b1257-12-c-bdfbeb", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "PSR B1257+12", "mapping_basis": "generation manifest", "filename": "warrior-series03-01-psr-b1257-12-c.jpg", "title": "A Planet Around a Pulsar", "planet": "PSR B1257+12 c", "category": "Real exoplanet setting", "series": "warrior-03", "description": "descriptions/warrior-series03-01-psr-b1257-12-c-bdfbeb.html", "image": "images/warrior-series03-01-psr-b1257-12-c.jpg", "scientific_anchor": "PSR B1257+12 c orbits a rapidly rotating neutron star. A pulsar’s repeated radio signals act as a timing reference: orbital motion changes the distance that the pulses travel to Earth, producing measurable shifts in their arrival times. Planet detection therefore does not require a transit or an optical image of the planet. This system provides more than a simple periodic signal. Gravitational interactions between the planets alter their motions, allowing dynamical modeling to constrain true planetary masses. The saved catalog gives 4.3 ± 0.2 Earth masses and an orbital period of 66.5419 ± 0.0001 days for planet c. Its listed radius of 1.91 Earth radii is a calculated value. It is not a measured transit radius, and it does not establish a solid surface or an atmosphere. Mass, radius and density can have different evidential foundations even when a catalog displays them side by side.", "scene_assumptions": "The small stellar point and barren horizon are an imagined local view. Pulsar timing establishes the planetary system, but it does not resolve these mountains, predict a visible sky of this brightness or validate the shielding of the pictured structure.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · PSR B1257+12 c · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/PSR%20B1257%2B12%20c" }, { "text": "Konacki & Wolszczan 2003 · dynamical masses", "url": "https://ui.adsabs.harvard.edu/abs/2003ApJ...591L.147K/abstract" }, { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" }, { "text": " Wolszczan et al. 1992 ", "url": "https://ui.adsabs.harvard.edu/abs/1992Natur.355..145W/abstract" }, { "text": " Konacki and Wolszczan 2003 ", "url": "https://ui.adsabs.harvard.edu/abs/2003ApJ...591L.147K/abstract" } ], "measurements": { "pl_rade": { "v": 1.91, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_bmasse": { "v": 4.3, "plus": 0.2, "minus": -0.2, "limit": 0, "source": { "text": " Konacki and Wolszczan 2003 ", "url": "https://ui.adsabs.harvard.edu/abs/2003ApJ...591L.147K/abstract" } }, "pl_dens": { "v": 3.39, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 66.5419, "plus": 0.0001, "minus": -0.0001, "limit": 0, "source": { "text": " Konacki and Wolszczan 2003 ", "url": "https://ui.adsabs.harvard.edu/abs/2003ApJ...591L.147K/abstract" } }, "pl_orbsmax": { "v": 0.36, "plus": null, "minus": null, "limit": 0, "source": { "text": " Konacki and Wolszczan 2003 ", "url": "https://ui.adsabs.harvard.edu/abs/2003ApJ...591L.147K/abstract" } }, "pl_orbeccen": { "v": 0.0186, "plus": 0.0002, "minus": -0.0002, "limit": 0, "source": { "text": " Konacki and Wolszczan 2003 ", "url": "https://ui.adsabs.harvard.edu/abs/2003ApJ...591L.147K/abstract" } }, "pl_orbincl": { "v": 53.0, "plus": 4.0, "minus": -4.0, "limit": 0, "source": { "text": " Konacki and Wolszczan 2003 ", "url": "https://ui.adsabs.harvard.edu/abs/2003ApJ...591L.147K/abstract" } }, "pl_insol": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_eqt": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_teff": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_rad": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_mass": { "v": 1.4, "plus": null, "minus": null, "limit": 0, "source": { "text": " Konacki and Wolszczan 2003 ", "url": "https://ui.adsabs.harvard.edu/abs/2003ApJ...591L.147K/abstract" } }, "st_lum": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_age": { "v": 3.0, "plus": 3.0, "minus": -3.0, "limit": 0, "source": { "text": " Konacki and Wolszczan 2003 ", "url": "https://ui.adsabs.harvard.edu/abs/2003ApJ...591L.147K/abstract" } }, "st_met": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "sy_dist": { "v": 600.0, "plus": 100.0, "minus": -100.0, "limit": 0.0, "source": { "text": " Konacki and Wolszczan 2003 ", "url": "https://ui.adsabs.harvard.edu/abs/2003ApJ...591L.147K/abstract" } } }, "original_context": [], "setting_name": "PSR B1257+12 c", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series03-01-psr-b1257-12-c-bdfbeb.webp", "sha256": "5f99a741ae3c9828074cad4e4a56269b81570a5b70b850491520fb27fa24e4aa", "canonical_original": "World Images/warrior-series03-01-psr-b1257-12-c.jpg", "limitations": "The small stellar point and barren horizon are an imagined local view. Pulsar timing establishes the planetary system, but it does not resolve these mountains, predict a visible sky of this brightness or validate the shielding of the pictured structure. All depicted life and technology are fictional.", "review": "Quiet four-armed meditation, protected window and barren invented horizon are visible. Pulsar is represented as a small point without beams or a disk. The dense decorative star field, source visibility, terrain and foreground exposure are artistic, not a radiation or sky model." }, { "registry_id": "warrior-series03-02-wd-1856-534-b-0e8cc8", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "WD 1856+534", "mapping_basis": "generation manifest", "filename": "warrior-series03-02-wd-1856-534-b.jpg", "title": "A Giant Beside a White Dwarf", "planet": "WD 1856+534 b", "category": "Real exoplanet setting", "series": "warrior-03", "description": "descriptions/warrior-series03-02-wd-1856-534-b-0e8cc8.html", "image": "images/warrior-series03-02-wd-1856-534-b.jpg", "scientific_anchor": "WD 1856+534 b passes in front of a white dwarf every 1.4079405 ± 0.0000011 days. White dwarfs are compact stellar remnants. The combination of a giant planet and a small host produces a distinctive transit geometry, and the close present orbit raises questions about the planet’s history after the host’s red-giant phase. A 2026 JWST analysis reports an atmosphere containing hydrocarbons and aerosols, with thermal emission from the planetary nightside. Its spectral models constrain the mass to 4.3–10.9 Jupiter masses. These are model-dependent atmospheric constraints, not a direct weighing of the planet. The saved composite table retains an older entry of 4386.054 Earth masses without an upper-limit flag. That discovery-era value should be read as an old upper constraint, not an exact measured mass. The newer study is identified separately so the differing provenance remains visible.", "scene_assumptions": "The broad cloud bands, nearby observing platform and apparent sizes are artistic choices. The atmospheric detections do not provide a resolved weather map, and the image does not choose between competing migration histories.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · WD 1856+534 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/WD%201856%2B534%20b" }, { "text": "Vanderburg et al. 2020 · discovery", "url": "https://www.nature.com/articles/s41586-020-2713-y" }, { "text": "MacDonald et al. 2026 · atmosphere and mass constraints", "url": "https://arxiv.org/abs/2607.01316" }, { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 10.4, "plus": 1.0, "minus": -1.0, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "pl_bmasse": { "v": 4386.054, "plus": null, "minus": null, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "pl_dens": { "v": 21.4, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 1.4079405, "plus": 1.1e-06, "minus": -1.1e-06, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "pl_orbsmax": { "v": 0.0204, "plus": 0.0012, "minus": -0.0012, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "pl_orbeccen": { "v": 0.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "pl_orbincl": { "v": 88.778, "plus": 0.059, "minus": -0.059, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "pl_insol": { "v": 0.181, "plus": 0.018, "minus": -0.018, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "pl_eqt": { "v": 163.0, "plus": 14.0, "minus": -18.0, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "st_teff": { "v": 4710.0, "plus": 60.0, "minus": -60.0, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "st_rad": { "v": 0.0131, "plus": 0.00054, "minus": -0.00054, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "st_mass": { "v": 0.518, "plus": 0.055, "minus": -0.055, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "st_lum": { "v": -4.12, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "st_age": { "v": 7.93, "plus": 2.07, "minus": -2.08, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "st_met": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "sy_dist": { "v": 24.7359, "plus": 0.0435, "minus": -0.0433, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "WD 1856+534 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series03-02-wd-1856-534-b-0e8cc8.webp", "sha256": "82965e95eb3cd2f2bfe301068c4a18013933c8ab3950eb552405f1b21b6cb8be", "canonical_original": "World Images/warrior-series03-02-wd-1856-534-b.jpg", "limitations": "The broad cloud bands, nearby observing platform and apparent sizes are artistic choices. The atmospheric detections do not provide a resolved weather map, and the image does not choose between competing migration histories. All depicted life and technology are fictional.", "review": "Organic elder, resting spare guards and enormous atmospheric limb are visible; bracers remain worn. The tiny host is consistent with the intended white-dwarf contrast, but angular sizes, cloud patterns, brightness and orbital geometry are illustrative. The old catalog mass-limit caveat is retained separately." }, { "registry_id": "warrior-series03-03-kepler-453-b-62c092", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-453", "mapping_basis": "generation manifest", "filename": "warrior-series03-03-kepler-453-b.jpg", "title": "A Planet Orbiting Two Stars", "planet": "Kepler-453 b", "category": "Real exoplanet setting", "series": "warrior-03", "description": "descriptions/warrior-series03-03-kepler-453-b-62c092.html", "image": "images/warrior-series03-03-kepler-453-b.jpg", "scientific_anchor": "Kepler-453 b circles a binary star. The discovery analysis gives a planetary period of 240.503 ± 0.053 days and a radius of 6.204 ± 0.039 Earth radii. Those values describe a large planet whose orbit surrounds both host stars. Circumbinary transits are shaped by the movement of the stars as well as the planet. The target being crossed is not fixed in the sky, so transit timing and duration require a model of the whole configuration. A simple sequence of equal intervals is an incomplete description of this geometry. The catalog mass of 16 Earth masses is an upper limit. It cannot be combined with the radius as though both were exact measurements to obtain a uniquely known density. Limits and asymmetric uncertainties are retained in the accompanying catalog table.", "scene_assumptions": "The foreground moon is entirely fictional. The two stellar lights reflect the real binary architecture, but their apparent sizes, separation and simultaneous visibility are not calculated for a specified epoch. No moon or surface ecosystem is established.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · Kepler-453 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-453%20b" }, { "text": "Welsh et al. 2015 · circumbinary discovery", "url": "https://doi.org/10.1088/0004-637X/809/1/26" }, { "text": "Welsh et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...809...26W/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 6.204, "plus": 0.039, "minus": -0.039, "limit": 0, "source": { "text": "Welsh et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...809...26W/abstract" } }, "pl_bmasse": { "v": 16.0, "plus": null, "minus": null, "limit": 1, "source": { "text": "Welsh et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...809...26W/abstract" } }, "pl_dens": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_orbper": { "v": 240.503, "plus": 0.053, "minus": -0.053, "limit": 0, "source": { "text": "Welsh et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...809...26W/abstract" } }, "pl_orbsmax": { "v": 0.7903, "plus": 0.0028, "minus": -0.0028, "limit": 0, "source": { "text": "Welsh et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...809...26W/abstract" } }, "pl_orbeccen": { "v": 0.0359, "plus": 0.0088, "minus": -0.0088, "limit": 0, "source": { "text": "Welsh et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...809...26W/abstract" } }, "pl_orbincl": { "v": 89.4429, "plus": 0.0091, "minus": -0.0091, "limit": 0, "source": { "text": "Welsh et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...809...26W/abstract" } }, "pl_insol": { "v": 0.9636, "plus": 0.0196, "minus": -0.0196, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 273.62, "plus": 5.29, "minus": -5.29, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "st_teff": { "v": 5527.0, "plus": 100.0, "minus": -100.0, "limit": 0, "source": { "text": "Welsh et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...809...26W/abstract" } }, "st_rad": { "v": 0.833, "plus": 0.011, "minus": -0.011, "limit": 0, "source": { "text": "Welsh et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...809...26W/abstract" } }, "st_mass": { "v": 0.944, "plus": 0.01, "minus": -0.01, "limit": 0, "source": { "text": "Welsh et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...809...26W/abstract" } }, "st_lum": { "v": -0.2205, "plus": 0.00821, "minus": -0.00837, "limit": 0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } }, "st_age": { "v": 2.49, "plus": 0.38, "minus": -0.38, "limit": 1, "source": { "text": "Welsh et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...809...26W/abstract" } }, "st_met": { "v": 0.09, "plus": 0.1, "minus": -0.1, "limit": 0, "source": { "text": "Welsh et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...809...26W/abstract" } }, "sy_dist": { "v": 442.846, "plus": 2.7245, "minus": -2.7245, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-453 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series03-03-kepler-453-b-62c092.webp", "sha256": "cda36b033dfa764874b349643bd276d34d56c50de0c0478912f2b5a350223bcf", "canonical_original": "World Images/warrior-series03-03-kepler-453-b.jpg", "limitations": "The foreground moon is entirely fictional. The two stellar lights reflect the real binary architecture, but their apparent sizes, separation and simultaneous visibility are not calculated for a specified epoch. No moon or surface ecosystem is established. All depicted life and technology are fictional.", "review": "Two nonhuman partners cross blunt padded staffs with an observer present. The moon is entirely fictional. The two unequal stellar disks and giant planet are illustrative; apparent separation, shadows, phases and satellite stability have not been solved." }, { "registry_id": "warrior-series03-04-k2-22-b-2209a5", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "K2-22", "mapping_basis": "generation manifest", "filename": "warrior-series03-04-k2-22-b.jpg", "title": "A Planet Revealed by Dust", "planet": "K2-22 b", "category": "Real exoplanet setting", "series": "warrior-03", "description": "descriptions/warrior-series03-04-k2-22-b-2209a5.html", "image": "images/warrior-series03-04-k2-22-b.jpg", "scientific_anchor": "K2-22 b repeats its transit signal on an approximately 9.15-hour orbit. The occultation changes markedly from one observation to another. A disintegrating body shedding dust explains the variable signal, and the discovery analysis considers a leading dust tail as part of that interpretation. Follow-up observations recovered the transits at multiple epochs and documented continued changes in their depth and shape. The evidence is a changing light curve: the amount of stellar light removed from our line of sight varies with the distribution of occulting material. A dusty transit is not a clean measurement of a solid planetary disk. The tabulated radius must therefore be interpreted with the source method in mind. Dust abundance, grain properties and geometry can affect the signal without a comparable change in the surviving body’s physical radius.", "scene_assumptions": "The pictured copper tail is an illustration of particulate material, not a resolved image. Its brightness, color, curvature and the remnant’s molten cracks are invented. The observations do not show a stream of individually resolved boulders.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · K2-22 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/K2-22%20b" }, { "text": "Sanchis-Ojeda et al. 2015 · disintegrating planet and leading tail", "url": "https://orbi.uliege.be/handle/2268/182144" }, { "text": "Colón et al. 2018 · variable transits", "url": "https://ntrs.nasa.gov/citations/20190002462" }, { "text": "Adams et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2..152A/abstract" }, { "text": "Sanchis-Ojeda et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...812..112S/abstract" }, { "text": "Dressing et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....154..207D/abstract" }, { "text": "Crossfield et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJS..226....7C/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 2.3, "plus": 0.1, "minus": -0.1, "limit": 0, "source": { "text": "Adams et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2..152A/abstract" } }, "pl_bmasse": { "v": 444.962, "plus": null, "minus": null, "limit": 1, "source": { "text": "Sanchis-Ojeda et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...812..112S/abstract" } }, "pl_dens": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_orbper": { "v": 0.381073, "plus": 2.4e-05, "minus": -2.4e-05, "limit": 0, "source": { "text": "Adams et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2..152A/abstract" } }, "pl_orbsmax": { "v": 0.009, "plus": 0.0, "minus": 0.0, "limit": 0, "source": { "text": "Dressing et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....154..207D/abstract" } }, "pl_orbeccen": { "v": 0.19, "plus": 0.221175, "minus": -0.152914, "limit": 0, "source": { "text": "Dressing et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....154..207D/abstract" } }, "pl_orbincl": { "v": 90.6, "plus": 8.0, "minus": -7.0, "limit": 0, "source": { "text": "Adams et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2..152A/abstract" } }, "pl_insol": { "v": 114.0, "plus": 45.0, "minus": -45.0, "limit": 0, "source": { "text": "Crossfield et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJS..226....7C/abstract" } }, "pl_eqt": { "v": 2100.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Sanchis-Ojeda et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...812..112S/abstract" } }, "st_teff": { "v": 3879.0, "plus": 90.0, "minus": -90.0, "limit": 0, "source": { "text": "Adams et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2..152A/abstract" } }, "st_rad": { "v": 0.58, "plus": 0.03, "minus": -0.03, "limit": 0, "source": { "text": "Adams et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2..152A/abstract" } }, "st_mass": { "v": 0.595292, "plus": 0.059529, "minus": -0.059529, "limit": 0, "source": { "text": "Dressing et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....154..207D/abstract" } }, "st_lum": { "v": -1.0744, "plus": 0.01092, "minus": -0.0112, "limit": 0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } }, "st_age": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_met": { "v": 0.032, "plus": 0.12, "minus": -0.12, "limit": 0, "source": { "text": "Adams et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2..152A/abstract" } }, "sy_dist": { "v": 243.836, "plus": 2.7975, "minus": -2.7975, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "K2-22 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series03-04-k2-22-b-2209a5.webp", "sha256": "5c768f123c0a0054b8355213405750cbd12949656fd7b4afc0352b90924037b8", "canonical_original": "World Images/warrior-series03-04-k2-22-b.jpg", "limitations": "The pictured copper tail is an illustration of particulate material, not a resolved image. Its brightness, color, curvature and the remnant’s molten cracks are invented. The observations do not show a stream of individually resolved boulders. All depicted life and technology are fictional.", "review": "Selected revision replaces the first render's large boulders with diffuse dust. The staff form and grounded posture are retained. The visible remnant, molten cracks, dust brightness, scale and projected tail shape are invented; observed dust transits do not resolve this view." }, { "registry_id": "warrior-series03-05-wasp-107-b-be851c", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "WASP-107", "mapping_basis": "generation manifest", "filename": "warrior-series03-05-wasp-107-b.jpg", "title": "Cloud Chemistry on a Low-Density Giant", "planet": "WASP-107 b", "category": "Real exoplanet setting", "series": "warrior-03", "description": "descriptions/warrior-series03-05-wasp-107-b-be851c.html", "image": "images/warrior-series03-05-wasp-107-b.jpg", "scientific_anchor": "WASP-107 b combines a large radius with a comparatively low mass. The saved catalog lists an orbital period of about 5.72 days and a bulk density near 0.16 g/cm³. Such a low average density concerns the whole planet; it does not give the density of any one cloud layer. JWST spectroscopy supports silicate cloud particles and sulfur dioxide in the atmosphere. During a transit, a small fraction of stellar light passes through the planet’s atmospheric limb. Comparing the apparent transit depth across wavelengths reveals the combined effects of absorption and scattering. Interpreting that spectrum requires atmospheric models. Cloud composition, particle size, gas abundance and temperature can influence the measured features. A supported silicate-cloud interpretation supplies a physical ingredient for the artwork, rather than a photograph of its cloud towers or a measured rainstorm.", "scene_assumptions": "The panorama imagines an atmospheric vantage. Its visible colors, local weather, altitude and enclosing structure are fictional. The real giant should not be treated as an exposed rocky landscape at the level of its cloud tops.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · WASP-107 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/WASP-107%20b" }, { "text": "Dyrek et al. 2023 · silicate clouds and sulfur dioxide", "url": "https://arxiv.org/abs/2311.12515" }, { "text": "Yee & Vissapragada 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1000L..54Y/abstract" }, { "text": "Anderson et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017A&A...604A.110A/abstract" }, { "text": "Yee & Vissapragada 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1000L..54Y/abstract" }, { "text": "Murphy et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024NatAs...8.1562M/abstract" }, { "text": "Howard et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025ApJS..278...52H/abstract" }, { "text": "Močnik et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017MNRAS.469.1622M/abstract" }, { "text": "Piaulet et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161...70P/abstract" }, { "text": "Bourrier et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023A&A...669A..63B/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 10.48039695, "plus": 0.25780656, "minus": -0.25780656, "limit": 0, "source": { "text": "Yee & Vissapragada 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1000L..54Y/abstract" } }, "pl_bmasse": { "v": 33.02237149, "plus": 1.23953079, "minus": -1.30309647, "limit": 0, "source": { "text": "Yee & Vissapragada 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1000L..54Y/abstract" } }, "pl_dens": { "v": 0.157, "plus": 0.012, "minus": -0.014, "limit": 0, "source": { "text": "Yee & Vissapragada 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1000L..54Y/abstract" } }, "pl_orbper": { "v": 5.7214875, "plus": 3e-07, "minus": -3e-07, "limit": 0, "source": { "text": "Yee & Vissapragada 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1000L..54Y/abstract" } }, "pl_orbsmax": { "v": 0.055, "plus": 0.001, "minus": -0.001, "limit": 0, "source": { "text": "Anderson et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017A&A...604A.110A/abstract" } }, "pl_orbeccen": { "v": 0.052, "plus": null, "minus": null, "limit": 1, "source": { "text": "Yee & Vissapragada 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1000L..54Y/abstract" } }, "pl_orbincl": { "v": 89.57, "plus": 0.03, "minus": -0.03, "limit": 0, "source": { "text": "Murphy et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024NatAs...8.1562M/abstract" } }, "pl_insol": { "v": 51.0, "plus": 4.0, "minus": -4.0, "limit": 0, "source": { "text": "Howard et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025ApJS..278...52H/abstract" } }, "pl_eqt": { "v": 736.0, "plus": 17.0, "minus": -17.0, "limit": 0, "source": { "text": "Močnik et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017MNRAS.469.1622M/abstract" } }, "st_teff": { "v": 4425.0, "plus": 70.0, "minus": -70.0, "limit": 0, "source": { "text": "Howard et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025ApJS..278...52H/abstract" } }, "st_rad": { "v": 0.657, "plus": 0.016, "minus": -0.016, "limit": 0, "source": { "text": "Močnik et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017MNRAS.469.1622M/abstract" } }, "st_mass": { "v": 0.683, "plus": 0.017, "minus": -0.016, "limit": 0, "source": { "text": "Piaulet et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161...70P/abstract" } }, "st_lum": { "v": -0.87943, "plus": 0.00976, "minus": -0.00998, "limit": 0, "source": { "text": "Piaulet et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161...70P/abstract" } }, "st_age": { "v": 3.4, "plus": 0.7, "minus": -0.7, "limit": 0, "source": { "text": "Bourrier et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023A&A...669A..63B/abstract" } }, "st_met": { "v": 0.02, "plus": 0.09, "minus": -0.09, "limit": 0, "source": { "text": "Howard et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025ApJS..278...52H/abstract" } }, "sy_dist": { "v": 64.7414, "plus": 0.2617, "minus": -0.2596, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "WASP-107 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series03-05-wasp-107-b-be851c.webp", "sha256": "faa8d81cc0fd0afc7f171121c36ea0c27ae5400630dd71cd94fe6e97e6e7a202", "canonical_original": "World Images/warrior-series03-05-wasp-107-b.jpg", "limitations": "The panorama imagines an atmospheric vantage. Its visible colors, local weather, altitude and enclosing structure are fictional. The real giant should not be treated as an exposed rocky landscape at the level of its cloud tops. All depicted life and technology are fictional.", "review": "A coherent three-legged practitioner balances on one foot inside a visible enclosure. Vast cloud decks dominate. Cloud appearance resembles familiar convection but is fictional: spectroscopy constrains particles, not this weather, altitude, color or platform viability." }, { "registry_id": "warrior-series03-06-hd-189733-b-034ef5", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "HD 189733", "mapping_basis": "generation manifest", "filename": "warrior-series03-06-hd-189733-b.jpg", "title": "A Blue Giant Seen in Reflected Light", "planet": "HD 189733 b", "category": "Real exoplanet setting", "series": "warrior-03", "description": "descriptions/warrior-series03-06-hd-189733-b-034ef5.html", "image": "images/warrior-series03-06-hd-189733-b.jpg", "scientific_anchor": "HD 189733 b is a hot giant with a catalog orbital period of about 2.22 days. Its blue optical appearance was investigated by observing the combined light of the star and planet before, during and after the planet passed behind the star. This event is a secondary eclipse. When the planet disappears, its contribution to the system’s brightness is removed. Comparing that change across visible wavelengths allowed the Hubble team to isolate a blue reflected-light signature. The method measures unresolved light; it does not require a detailed image of the planetary disk. A blue signal is not evidence for an ocean. Atmospheric scattering and absorption can produce a blue appearance in a strongly irradiated gas giant. Silicate particles are part of the physical interpretation, while the exact distribution of clouds remains a separate question.", "scene_assumptions": "The image’s cobalt swirls, curved limb and nearby platform translate those broad ideas into a fictional view. Individual vortices, viewing altitude and visible brightness have not been reconstructed from the eclipse measurements.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · HD 189733 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/HD%20189733%20b" }, { "text": "ESA/Hubble 2013 · measured blue optical color", "url": "https://esahubble.org/news/heic1312/" }, { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" }, { "text": " Bouchy et al. 2005 ", "url": "https://ui.adsabs.harvard.edu/abs/2005A&A...444L..15B/abstract" }, { "text": " Agol et al. 2010 ", "url": "https://ui.adsabs.harvard.edu/abs/2010ApJ...721.1861A/abstract" }, { "text": "Rosenthal et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021ApJS..255....8R/abstract" }, { "text": "Addison et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019PASP..131k5003A/abstract" }, { "text": "Barstow et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017ApJ...834...50B/abstract" }, { "text": " Southworth 2010 ", "url": "https://ui.adsabs.harvard.edu/abs/2010MNRAS.408.1689S/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 12.66617, "plus": 0.11209, "minus": -0.11209, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "pl_bmasse": { "v": 359.1479, "plus": 25.4264, "minus": -25.4264, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "pl_dens": { "v": 0.943, "plus": 0.024, "minus": -0.024, "limit": 0, "source": { "text": " Agol et al. 2010 ", "url": "https://ui.adsabs.harvard.edu/abs/2010ApJ...721.1861A/abstract" } }, "pl_orbper": { "v": 2.21857567, "plus": 1.5e-07, "minus": -1.5e-07, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "pl_orbsmax": { "v": 0.03126, "plus": 0.00036, "minus": -0.00036, "limit": 0, "source": { "text": "Rosenthal et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021ApJS..255....8R/abstract" } }, "pl_orbeccen": { "v": 0.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "pl_orbincl": { "v": 85.71, "plus": 0.0, "minus": 0.0, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "pl_insol": { "v": 356.0, "plus": 13.0, "minus": -12.0, "limit": 0, "source": { "text": "Addison et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019PASP..131k5003A/abstract" } }, "pl_eqt": { "v": 1209.0, "plus": 11.0, "minus": -11.0, "limit": 0, "source": { "text": "Addison et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019PASP..131k5003A/abstract" } }, "st_teff": { "v": 5052.0, "plus": 16.0, "minus": -16.0, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "st_rad": { "v": 0.75, "plus": 0.01, "minus": -0.01, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "st_mass": { "v": 0.79, "plus": 0.08, "minus": -0.08, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "st_lum": { "v": -0.46119, "plus": 0.01798, "minus": -0.00876, "limit": 0, "source": { "text": "Barstow et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017ApJ...834...50B/abstract" } }, "st_age": { "v": 1.4, "plus": 4.9, "minus": -1.9, "limit": 0, "source": { "text": " Southworth 2010 ", "url": "https://ui.adsabs.harvard.edu/abs/2010MNRAS.408.1689S/abstract" } }, "st_met": { "v": -0.02, "plus": null, "minus": null, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "sy_dist": { "v": 19.7638, "plus": 0.0128, "minus": -0.0127, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "HD 189733 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series03-06-hd-189733-b-034ef5.webp", "sha256": "1fec94fd775ae02f469c125a0b1e9f886fb3ea54b20c6514db3c3af7d31afb35", "canonical_original": "World Images/warrior-series03-06-hd-189733-b.jpg", "limitations": "The image’s cobalt swirls, curved limb and nearby platform translate those broad ideas into a fictional view. Individual vortices, viewing altitude and visible brightness have not been reconstructed from the eclipse measurements. All depicted life and technology are fictional.", "review": "Standing partner contact, padded floor and seated instructor make supervised practice legible. A large blue atmospheric limb dominates. The blue optical evidence does not resolve these cloud patterns or imply oceans; the viewing trajectory and protective habitat are invented." }, { "registry_id": "warrior-series03-07-wasp-12-b-661ab9", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "WASP-12", "mapping_basis": "generation manifest", "filename": "warrior-series03-07-wasp-12-b.jpg", "title": "Tides and an Escaping Atmosphere", "planet": "WASP-12 b", "category": "Real exoplanet setting", "series": "warrior-03", "description": "descriptions/warrior-series03-07-wasp-12-b-661ab9.html", "image": "images/warrior-series03-07-wasp-12-b.jpg", "scientific_anchor": "WASP-12 b is an inflated giant in an orbit lasting about 1.09 days. Close to its host, the difference in stellar gravity across the planet becomes significant. Tidal models predict a departure from a perfectly spherical shape, with elongation related to the direction of the star. Ultraviolet observations support the presence of extended, escaping atmospheric material. This is evidence about absorption and the spatial extent of gas, rather than a resolved photograph of the diffuse stream pictured here. Its rendered morphology should be read as an interpretation. Hubble observations also found very low reflectivity in the visible wavelength range studied. Low reflected light does not imply that a hot planet emits no radiation: reflected starlight and the planet’s own thermal emission are different components of the energy budget.", "scene_assumptions": "The artwork deliberately makes tidal elongation and escaping haze easy to see. Their exact strength, color and geometry are not fitted to an observational epoch. The enclosing structure and all nearby activity remain fictional.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · WASP-12 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/WASP-12%20b" }, { "text": "Li et al. 2010 · tidal deformation model", "url": "https://www.nature.com/articles/nature08715" }, { "text": "NASA/Hubble · low optical reflectivity", "url": "https://science.nasa.gov/missions/hubble/nasas-hubble-captures-blistering-pitch-black-planet/" }, { "text": "NASA/Hubble · atmospheric escape", "url": "https://science.nasa.gov/missions/hubble/hubble-finds-star-eating-a-planet/" }, { "text": "Leonardi et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...686A..84L/abstract" }, { "text": "Collins et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153...78C/abstract" }, { "text": " Hebb et al. 2009 ", "url": "https://ui.adsabs.harvard.edu/abs/2009ApJ...693.1920H/abstract" }, { "text": "Turner et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016MNRAS.459..789T/abstract" }, { "text": "ExoFOP", "url": "https://exofop.ipac.caltech.edu/tess/view_toi.php" }, { "text": "Öztürk & Erdem 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019MNRAS.486.2290O/abstract" }, { "text": "Barstow et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017ApJ...834...50B/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 22.02564708, "plus": 0.9863903, "minus": -0.97518132, "limit": 0, "source": { "text": "Leonardi et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...686A..84L/abstract" } }, "pl_bmasse": { "v": 467.2101, "plus": 24.15508, "minus": -21.93027, "limit": 0, "source": { "text": "Collins et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153...78C/abstract" } }, "pl_dens": { "v": 0.266, "plus": 0.015, "minus": -0.014, "limit": 0, "source": { "text": "Collins et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153...78C/abstract" } }, "pl_orbper": { "v": 1.091418901, "plus": 1.8e-08, "minus": -1.8e-08, "limit": 0, "source": { "text": "Leonardi et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...686A..84L/abstract" } }, "pl_orbsmax": { "v": 0.0234, "plus": 0.001, "minus": -0.001, "limit": 0, "source": { "text": "Leonardi et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...686A..84L/abstract" } }, "pl_orbeccen": { "v": 0.0447, "plus": 0.0043, "minus": -0.0043, "limit": 0, "source": { "text": "Turner et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016MNRAS.459..789T/abstract" } }, "pl_orbincl": { "v": 81.8, "plus": 0.29, "minus": -0.27, "limit": 0, "source": { "text": "Leonardi et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...686A..84L/abstract" } }, "pl_insol": { "v": 8220.584, "plus": null, "minus": null, "limit": 0, "source": { "text": "ExoFOP", "url": "https://exofop.ipac.caltech.edu/tess/view_toi.php" } }, "pl_eqt": { "v": 2601.0, "plus": 18.0, "minus": -18.0, "limit": 0, "source": { "text": "Öztürk & Erdem 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019MNRAS.486.2290O/abstract" } }, "st_teff": { "v": 6265.0, "plus": 50.0, "minus": -50.0, "limit": 0, "source": { "text": "Leonardi et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...686A..84L/abstract" } }, "st_rad": { "v": 1.69, "plus": 0.019, "minus": -0.018, "limit": 0, "source": { "text": "Leonardi et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...686A..84L/abstract" } }, "st_mass": { "v": 1.325, "plus": 0.026, "minus": -0.018, "limit": 0, "source": { "text": "Leonardi et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...686A..84L/abstract" } }, "st_lum": { "v": 0.59711, "plus": 0.02779, "minus": -0.02505, "limit": 0, "source": { "text": "Barstow et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017ApJ...834...50B/abstract" } }, "st_age": { "v": 3.05, "plus": 0.32, "minus": -0.32, "limit": 0, "source": { "text": "Leonardi et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...686A..84L/abstract" } }, "st_met": { "v": 0.12, "plus": 0.07, "minus": -0.07, "limit": 0, "source": { "text": "Leonardi et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...686A..84L/abstract" } }, "sy_dist": { "v": 427.246, "plus": 6.068, "minus": -5.903, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "WASP-12 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series03-07-wasp-12-b-661ab9.webp", "sha256": "896333d60f4a2b7edd8c1027e5c278c0f4b226df7eaefa92c181001bea889aad", "canonical_original": "World Images/warrior-series03-07-wasp-12-b.jpg", "limitations": "The artwork deliberately makes tidal elongation and escaping haze easy to see. Their exact strength, color and geometry are not fitted to an observational epoch. The enclosing structure and all nearby activity remain fictional. All depicted life and technology are fictional.", "review": "The wooden training blade visibly stops short of the shield, with a calm instructor nearby. The dark planet is rendered conspicuously elongated and surrounded by luminous escaping haze; the degree of deformation and haze morphology are artistic exaggerations, not resolved measurements." }, { "registry_id": "warrior-series03-08-kelt-9-b-ea326b", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "KELT-9", "mapping_basis": "generation manifest", "filename": "warrior-series03-08-kelt-9-b.jpg", "title": "Heat That Changes the Chemistry", "planet": "KELT-9 b", "category": "Real exoplanet setting", "series": "warrior-03", "description": "descriptions/warrior-series03-08-kelt-9-b-ea326b.html", "image": "images/warrior-series03-08-kelt-9-b.jpg", "scientific_anchor": "KELT-9 b is an ultra-hot giant on a roughly 1.48-day orbit. Intense irradiation makes its atmosphere a useful test of physics that is much less prominent in cooler planets. The distinction between the planet’s incoming stellar energy and its emitted heat is central to interpreting observations. On the extremely hot dayside, molecular hydrogen can break apart into atoms. Dissociation absorbs energy. When those atoms move to cooler regions and recombine into molecules, energy is released again. Atmospheric circulation can therefore transport energy in chemical form as well as through changes in gas temperature. Thermal observations taken over an orbit constrain how the system’s brightness varies with viewing phase. Interpreting that variation involves temperature structure, heat transport and the spectrum emitted by the atmosphere; it is not equivalent to directly photographing a local weather front.", "scene_assumptions": "The pale glowing limb is viewed through an invented protective window. Its filtering and exposure mean that the palette is not a naked-eye color prediction. No ordinary surface, habitable atmosphere or feasible shelter is established by the illustration.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · KELT-9 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/KELT-9%20b" }, { "text": "NASA/JPL 2020 · hydrogen dissociation and heat transport", "url": "https://www.nasa.gov/centers-and-facilities/jpl/for-hottest-planet-a-major-meltdown-study-shows/" }, { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" }, { "text": "Gaudi et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017Natur.546..514G/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 21.70058664, "plus": 0.52682209, "minus": -0.52682209, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "pl_bmasse": { "v": 915.34581216, "plus": 111.23994245, "minus": -111.23994245, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "pl_dens": { "v": 0.491, "plus": 0.072, "minus": -0.066, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "pl_orbper": { "v": 1.4811235, "plus": 1.1e-06, "minus": -1.1e-06, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "pl_orbsmax": { "v": 0.03368, "plus": 0.00078, "minus": -0.00078, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "pl_orbeccen": { "v": 0.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "pl_orbincl": { "v": 86.79, "plus": 0.25, "minus": -0.25, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "pl_insol": { "v": 44900.0, "plus": 8100.0, "minus": -7200.0, "limit": 0, "source": { "text": "Gaudi et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017Natur.546..514G/abstract" } }, "pl_eqt": { "v": 3921.0, "plus": 182.0, "minus": -174.0, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "st_teff": { "v": 9270.0, "plus": 240.0, "minus": -180.0, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "st_rad": { "v": 2.418, "plus": 0.058, "minus": -0.058, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "st_mass": { "v": 2.32, "plus": 0.16, "minus": -0.16, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "st_lum": { "v": 1.58995, "plus": 0.04553, "minus": -0.03728, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "st_age": { "v": 0.45, "plus": 0.14, "minus": -0.13, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "st_met": { "v": 0.07, "plus": 0.2, "minus": -0.23, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "sy_dist": { "v": 204.455, "plus": 1.582, "minus": -1.558, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "KELT-9 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series03-08-kelt-9-b-ea326b.webp", "sha256": "9e314793710acad1e06af52254c2c077c13a1d27fa7aaf313370cba2a67b9d9d", "canonical_original": "World Images/warrior-series03-08-kelt-9-b.jpg", "limitations": "The pale glowing limb is viewed through an invented protective window. Its filtering and exposure mean that the palette is not a naked-eye color prediction. No ordinary surface, habitable atmosphere or feasible shelter is established by the illustration. All depicted life and technology are fictional.", "review": "Low staff stance, worn protective plates, enclosed room and filtered bright planetary limb are visible. Decorative geometric markings and a small cultivated plant are fictional habitat details. The image does not predict visible-light color, temperature, window transmission or protective engineering." }, { "registry_id": "warrior-series03-09-hip-65426-b-f5738b", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "HIP 65426", "mapping_basis": "generation manifest", "filename": "warrior-series03-09-hip-65426-b.jpg", "title": "Direct Light from a Young Giant", "planet": "HIP 65426 b", "category": "Real exoplanet setting", "series": "warrior-03", "description": "descriptions/warrior-series03-09-hip-65426-b-f5738b.html", "image": "images/warrior-series03-09-hip-65426-b.jpg", "scientific_anchor": "HIP 65426 b is a young giant observed at a wide separation from its host star. JWST detected its light across near- and mid-infrared wavelengths. Suppressing the star’s glare allows instruments to separate a faint companion signal from the much brighter stellar source. A young giant can remain warm from its formation and emit infrared radiation. That emission makes direct imaging possible even when reflected visible starlight is weak. The published images establish planetary light at the companion’s location; they do not resolve the cloud bands illustrated here. Mass and radius estimates depend on atmosphere and evolution models and on assumptions about the system’s age. The local snapshot retains the discovery-era estimates with their uncertainties, while the cited JWST study provides a separate spectral analysis. The catalog supplies no orbital period; an unknown period is not zero.", "scene_assumptions": "The nearby observatory and broad ember-colored disk are fictional. The very small stellar point expresses a wide-orbit setting, but the artwork is neither an infrared detector image nor a calibrated visible-light view.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · HIP 65426 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/HIP%2065426%20b" }, { "text": "Carter et al. 2023 · JWST infrared direct imaging", "url": "https://arxiv.org/abs/2208.14990" }, { "text": "Chauvin et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017A&A...605L...9C/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 16.8135, "plus": 1.1209, "minus": -1.1209, "limit": 0, "source": { "text": "Chauvin et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017A&A...605L...9C/abstract" } }, "pl_bmasse": { "v": 2860.47, "plus": 953.49, "minus": -953.49, "limit": 0, "source": { "text": "Chauvin et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017A&A...605L...9C/abstract" } }, "pl_dens": { "v": 3.31, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_orbsmax": { "v": 92.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Chauvin et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017A&A...605L...9C/abstract" } }, "pl_orbeccen": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_orbincl": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_insol": { "v": 0.0022, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 1500.0, "plus": 100.0, "minus": -200.0, "limit": 0, "source": { "text": "Chauvin et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017A&A...605L...9C/abstract" } }, "st_teff": { "v": 8840.0, "plus": 200.0, "minus": -200.0, "limit": 0, "source": { "text": "Chauvin et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017A&A...605L...9C/abstract" } }, "st_rad": { "v": 1.77, "plus": 0.05, "minus": -0.05, "limit": 0, "source": { "text": "Chauvin et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017A&A...605L...9C/abstract" } }, "st_mass": { "v": 1.96, "plus": 0.04, "minus": -0.04, "limit": 0, "source": { "text": "Chauvin et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017A&A...605L...9C/abstract" } }, "st_lum": { "v": 1.26895, "plus": 0.02206, "minus": -0.03127, "limit": 0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } }, "st_age": { "v": 0.014, "plus": 0.004, "minus": -0.004, "limit": 0, "source": { "text": "Chauvin et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017A&A...605L...9C/abstract" } }, "st_met": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "sy_dist": { "v": 108.875, "plus": 0.753, "minus": -0.742, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "HIP 65426 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series03-09-hip-65426-b-f5738b.webp", "sha256": "5841a4c709289c1b8101af90cdfdb55f0310513ef39f1ba67c92680c969ff71f", "canonical_original": "World Images/warrior-series03-09-hip-65426-b.jpg", "limitations": "The nearby observatory and broad ember-colored disk are fictional. The very small stellar point expresses a wide-orbit setting, but the artwork is neither an infrared detector image nor a calibrated visible-light view. All depicted life and technology are fictional.", "review": "Many-limbed organic practitioner, suspended cradle and equipment at rest read as meditation after practice. The young giant has muted warm mottling and a tiny distant stellar point. Limb count is partly obscured by the pose. Cloud detail and visible emission palette are inventions, not a resolved JWST image." }, { "registry_id": "warrior-series03-10-gj-367-b-68636d", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "GJ 367", "mapping_basis": "generation manifest", "filename": "warrior-series03-10-gj-367-b.jpg", "title": "Revising an Iron-Rich Planet", "planet": "GJ 367 b", "category": "Real exoplanet setting", "series": "warrior-03", "description": "descriptions/warrior-series03-10-gj-367-b-68636d.html", "image": "images/warrior-series03-10-gj-367-b.jpg", "scientific_anchor": "GJ 367 b is a sub-Earth with an orbital period of roughly 7.7 hours. A 2026 analysis reports a mass of 0.503 ± 0.078 Earth masses and a radius of 0.736 ± 0.035 Earth radii. Combining those quantities yields a bulk density of 6.9 (+1.6/−1.4) g/cm³. Density does not directly measure the chemical composition of the interior. The interpretation must account for material properties and the distribution of rock and metal. The revised analysis also considers observational effects and tidal distortion when connecting the measured signal to the planet’s physical size. The study’s interior models allow an iron-rich planet without requiring the older near-pure-iron interpretation. This is a useful distinction between measurements and a model-based composition inference: revised inputs can change the inferred interior even though the planet itself has not changed.", "scene_assumptions": "The dark ridges, grazing light and protected viewpoint are invented. Neither the bulk density nor the short orbital period establishes this terrain, a breathable atmosphere or the image’s exact stellar position.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · GJ 367 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/GJ%20367%20b" }, { "text": "Lee et al. 2026 · revised density and interior models", "url": "https://arxiv.org/abs/2606.18355" }, { "text": "Lee et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026arXiv260618355L/abstract" }, { "text": "Lam et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021Sci...374.1271L/abstract" }, { "text": "Goffo et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023ApJ...955L...3G/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 0.736, "plus": 0.035, "minus": -0.035, "limit": 0, "source": { "text": "Lee et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026arXiv260618355L/abstract" } }, "pl_bmasse": { "v": 0.503, "plus": 0.078, "minus": -0.078, "limit": 0, "source": { "text": "Lee et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026arXiv260618355L/abstract" } }, "pl_dens": { "v": 6.9, "plus": 1.6, "minus": -1.4, "limit": 0, "source": { "text": "Lee et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026arXiv260618355L/abstract" } }, "pl_orbper": { "v": 0.3219226, "plus": 1e-06, "minus": -1e-06, "limit": 0, "source": { "text": "Lee et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026arXiv260618355L/abstract" } }, "pl_orbsmax": { "v": 0.0071, "plus": 0.0002, "minus": -0.0002, "limit": 0, "source": { "text": "Lam et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021Sci...374.1271L/abstract" } }, "pl_orbeccen": { "v": 0.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Lee et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026arXiv260618355L/abstract" } }, "pl_orbincl": { "v": 78.6, "plus": 0.7, "minus": -0.7, "limit": 0, "source": { "text": "Lee et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026arXiv260618355L/abstract" } }, "pl_insol": { "v": 579.0, "plus": 57.0, "minus": -52.0, "limit": 0, "source": { "text": "Goffo et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023ApJ...955L...3G/abstract" } }, "pl_eqt": { "v": 1329.0, "plus": 50.0, "minus": -50.0, "limit": 0, "source": { "text": "Lee et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026arXiv260618355L/abstract" } }, "st_teff": { "v": 3535.0, "plus": 127.0, "minus": -127.0, "limit": 0, "source": { "text": "Lee et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026arXiv260618355L/abstract" } }, "st_rad": { "v": 0.457, "plus": 0.015, "minus": -0.015, "limit": 0, "source": { "text": "Lee et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026arXiv260618355L/abstract" } }, "st_mass": { "v": 0.451, "plus": 0.019, "minus": -0.019, "limit": 0, "source": { "text": "Lee et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026arXiv260618355L/abstract" } }, "st_lum": { "v": -1.54061, "plus": 0.03892, "minus": -0.04275, "limit": 0, "source": { "text": "Lam et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021Sci...374.1271L/abstract" } }, "st_age": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_met": { "v": -0.01, "plus": 0.12, "minus": -0.12, "limit": 0, "source": { "text": "Goffo et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023ApJ...955L...3G/abstract" } }, "sy_dist": { "v": 9.41263, "plus": 0.002835, "minus": -0.002835, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "GJ 367 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series03-10-gj-367-b-68636d.webp", "sha256": "8b9fb159d4388ce49a7e14914a202996531dea7318dcc0e057cc18c479d478be", "canonical_original": "World Images/warrior-series03-10-gj-367-b.jpg", "limitations": "The dark ridges, grazing light and protected viewpoint are invented. Neither the bulk density nor the short orbital period establishes this terrain, a breathable atmosphere or the image’s exact stellar position. All depicted life and technology are fictional.", "review": "Two broad-bodied multi-legged partners meet shields on padded flooring while an instructor signals a pause. The rendered participants show fewer clearly visible legs than the six-leg brief, so captions avoid an exact count. Rocky relief, curved horizon and cropped stellar glare are illustrative; surface conditions and light geometry are unknown." }, { "registry_id": "warrior-series04-01-toi-700-d-93822b", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "TOI-700", "mapping_basis": "generation manifest", "filename": "warrior-series04-01-toi-700-d.jpg", "title": "Light at the Terminator", "planet": "TOI-700 d", "category": "Real exoplanet setting", "series": "warrior-04", "description": "descriptions/warrior-series04-01-toi-700-d-93822b.html", "image": "images/warrior-series04-01-toi-700-d.jpg", "scientific_anchor": "TOI-700 d crosses the face of a small, cool star every 37.42 days. The saved catalog lists a radius of 1.073 Earth radii, with an uncertainty of +0.059/−0.054. Transit depth constrains size relative to the star; it does not reveal a shoreline or establish an atmosphere. Climate studies have explored both ocean-covered and dry versions of this world. Their results depend on assumed atmospheric composition, pressure and rotation. A permanently illuminated hemisphere is one possible configuration if rotation has become synchronized with the orbit. The clouds in those calculations are model outcomes, not observed weather. The catalog mass of 1.25 Earth masses is inferred from a mass–radius relationship. It is not an independent mass measurement. Similarly, an equilibrium temperature summarizes a simplified energy balance, rather than the temperature at a particular beach.", "scene_assumptions": "Sevenfold armored rosette in a still, inward-folded meditative pose. A speculative wet surface near a possible day–night boundary. The rain, ocean and basalt coast in this scene are a speculative realization near a possible day–night boundary. The warm horizon and reflected light illustrate stellar illumination; neither the sky color nor the weather has been measured here.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · TOI-700 d · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/TOI-700%20d" }, { "text": "Suissa et al. 2020 · Possible climate states of TOI-700 d", "url": "https://arxiv.org/abs/2001.00955" }, { "text": "Gilbert et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....160..116G/abstract" }, { "text": "Gilbert et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023ApJ...944L..35G/abstract" }, { "text": "Rodriguez et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....160..117R/abstract" }, { "text": "Kokori et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023ApJS..265....4K/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 1.073, "plus": 0.059, "minus": -0.054, "limit": 0, "source": { "text": "Gilbert et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023ApJ...944L..35G/abstract" } }, "pl_bmasse": { "v": 1.25, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_dens": { "v": 5.56, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 37.42396, "plus": 0.00039, "minus": -0.00035, "limit": 0, "source": { "text": "Gilbert et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023ApJ...944L..35G/abstract" } }, "pl_orbsmax": { "v": 0.1633, "plus": 0.0027, "minus": -0.0027, "limit": 0, "source": { "text": "Gilbert et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023ApJ...944L..35G/abstract" } }, "pl_orbeccen": { "v": 0.042, "plus": 0.045, "minus": -0.03, "limit": 0, "source": { "text": "Gilbert et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023ApJ...944L..35G/abstract" } }, "pl_orbincl": { "v": 89.8, "plus": 0.12, "minus": -0.1, "limit": 0, "source": { "text": "Gilbert et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023ApJ...944L..35G/abstract" } }, "pl_insol": { "v": 0.85, "plus": 0.09, "minus": -0.1, "limit": 0, "source": { "text": "Gilbert et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023ApJ...944L..35G/abstract" } }, "pl_eqt": { "v": 268.8, "plus": 7.7, "minus": -7.6, "limit": 0, "source": { "text": "Rodriguez et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....160..117R/abstract" } }, "st_teff": { "v": 3459.0, "plus": 65.0, "minus": -65.0, "limit": 0, "source": { "text": "Gilbert et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023ApJ...944L..35G/abstract" } }, "st_rad": { "v": 0.421, "plus": 0.017, "minus": -0.015, "limit": 0, "source": { "text": "Gilbert et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023ApJ...944L..35G/abstract" } }, "st_mass": { "v": 0.415, "plus": 0.021, "minus": -0.02, "limit": 0, "source": { "text": "Gilbert et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023ApJ...944L..35G/abstract" } }, "st_lum": { "v": -1.64016, "plus": 0.0467, "minus": -0.04597, "limit": 0, "source": { "text": "Gilbert et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023ApJ...944L..35G/abstract" } }, "st_age": { "v": 1.5, "plus": null, "minus": null, "limit": -1, "source": { "text": "Kokori et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023ApJS..265....4K/abstract" } }, "st_met": { "v": -0.07, "plus": 0.11, "minus": -0.11, "limit": 0, "source": { "text": "Gilbert et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023ApJ...944L..35G/abstract" } }, "sy_dist": { "v": 31.1265, "plus": 0.0206, "minus": -0.0206, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "TOI-700 d", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series04-01-toi-700-d-93822b.webp", "sha256": "07e8603acdbc3b3e6f4d97de25c8dd4414008e56d96c922a8b626ca584e3d465", "canonical_original": "World Images/warrior-series04-01-toi-700-d.jpg", "limitations": "The rain, ocean and basalt coast in this scene are a speculative realization near a possible day–night boundary. The warm horizon and reflected light illustrate stellar illumination; neither the sky color nor the weather has been measured here. All depicted life is fictional. The visual connection to the cosmos is an artistic theme, not a claimed biological mechanism.", "review": "Accepted: headless radial armored rosette, inward-folded organic lobes, tactile wet surfaces, small stellar disk, convincing rain and reflected light. Coast, oceans, atmosphere and weather are speculative; not a simulated TOI-700 d climate." }, { "registry_id": "warrior-series04-02-kepler-442-b-4cd8a4", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-442", "mapping_basis": "generation manifest", "filename": "warrior-series04-02-kepler-442-b.jpg", "title": "The Color of a Cooler Sun", "planet": "Kepler-442 b", "category": "Real exoplanet setting", "series": "warrior-04", "description": "descriptions/warrior-series04-02-kepler-442-b-4cd8a4.html", "image": "images/warrior-series04-02-kepler-442-b.jpg", "scientific_anchor": "Kepler-442 b is a transiting planet around a star cooler than the Sun. The saved catalog gives a 112.3053-day orbit and a radius of 1.34 Earth radii, with uncertainties of +0.11/−0.18. Its discovery analysis tested whether other astronomical configurations could imitate the observed dips in brightness. Statistical validation compares the planet explanation with alternatives such as blended eclipsing stars. It can establish a compelling planetary interpretation even when a direct mass measurement is unavailable. For Kepler-442 b, the catalog’s 2.36-Earth-mass entry is a calculated estimate from its radius. A cooler stellar photosphere changes the distribution of incoming light across wavelengths. The catalog’s stellar effective temperature is about 4,400 K. This describes the star’s radiation, not the color of an observed landscape; an unknown atmosphere would also scatter and absorb that light.", "scene_assumptions": "Continuous pleated ribbon in a still, inward-folded meditative pose. An imagined rocky landscape; atmosphere and surface are unmeasured. The desert, arches and twilight palette are imagined. Placement in a potentially temperate irradiation range does not by itself establish liquid water, surface pressure, a rocky landscape or biological activity.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · Kepler-442 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-442%20b" }, { "text": "Torres et al. 2015 · Validation of twelve small Kepler planets", "url": "https://arxiv.org/abs/1501.01101" }, { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" }, { "text": "Q1-Q17 DR25 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 1.34, "plus": 0.11, "minus": -0.18, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_bmasse": { "v": 2.36, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_dens": { "v": 5.39, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 112.3053, "plus": 0.0024, "minus": -0.0028, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_orbsmax": { "v": 0.409, "plus": 0.209, "minus": -0.06, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_orbeccen": { "v": 0.04, "plus": 0.08, "minus": -0.04, "limit": -1, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_orbincl": { "v": 89.94, "plus": 0.06, "minus": -0.12, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_insol": { "v": 0.66, "plus": 0.23, "minus": -0.41, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_eqt": { "v": 241.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Q1-Q17 DR25 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" } }, "st_teff": { "v": 4402.0, "plus": 100.0, "minus": -100.0, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "st_rad": { "v": 0.598, "plus": 0.023, "minus": -0.024, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "st_mass": { "v": 0.609, "plus": 0.03, "minus": -0.026, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "st_lum": { "v": -0.932, "plus": 0.081, "minus": -0.064, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "st_age": { "v": 2.9, "plus": 8.1, "minus": -0.2, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "st_met": { "v": -0.37, "plus": 0.1, "minus": -0.1, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "sy_dist": { "v": 365.965, "plus": 2.763, "minus": -2.724, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-442 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series04-02-kepler-442-b-4cd8a4.webp", "sha256": "2cb6ac4197735fa310111dac9dd1c3ade4d7fee05f2bab9799e83a155a356459", "canonical_original": "World Images/warrior-series04-02-kepler-442-b.jpg", "limitations": "The desert, arches and twilight palette are imagined. Placement in a potentially temperate irradiation range does not by itself establish liquid water, surface pressure, a rocky landscape or biological activity. All depicted life is fictional. The visual connection to the cosmos is an artistic theme, not a claimed biological mechanism.", "review": "Accepted: continuous scaled ribbon body with no humanoid head or limbs, curled stillness distinct from the rosette. Arches, desert, dusk color and starfield are invented and not a measured surface." }, { "registry_id": "warrior-series04-03-ross-128-b-f1b134", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Ross 128", "mapping_basis": "generation manifest", "filename": "warrior-series04-03-ross-128-b.jpg", "title": "A Planet in the Star’s Motion", "planet": "Ross 128 b", "category": "Real exoplanet setting", "series": "warrior-04", "description": "descriptions/warrior-series04-03-ross-128-b-f1b134.html", "image": "images/warrior-series04-03-ross-128-b.jpg", "scientific_anchor": "Ross 128 b was detected through repeated changes in its star’s radial velocity. The planet and star orbit their shared center of mass; the star’s motion toward and away from Earth shifts its spectral lines. The saved catalog gives an orbital period of 9.8658 ± 0.0070 days. The quoted mass, 1.40 ± 0.21 Earth masses, is a minimum mass: m sin i. Without knowing the orbital inclination, this signal alone does not establish the true mass. The listed radius of 1.11 Earth radii is calculated, rather than measured from a transit. The discovery study identified Ross 128 as a relatively quiet nearby red dwarf. Lower observed stellar activity helps distinguish small orbital signals from stellar variability, and matters when considering the radiation a planet receives. It does not demonstrate a stable surface climate or a surviving atmosphere.", "scene_assumptions": "Tripod carapace with ventral sensory web in a still, inward-folded meditative pose. A fictional twilight plateau on an indirectly detected planet. The high plateau, mist and sunset are fictional local scenery. Their scale and colors are artistic choices; the stellar-motion measurements do not supply a map of this world.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · Ross 128 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Ross%20128%20b" }, { "text": "Bonfils et al. 2018 · A temperate planet around Ross 128", "url": "https://arxiv.org/abs/1711.06177" }, { "text": "Bonfils et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..25B/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 1.11, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_bmasse": { "v": 1.4, "plus": 0.21, "minus": -0.21, "limit": 0, "source": { "text": "Bonfils et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..25B/abstract" } }, "pl_dens": { "v": 5.63, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 9.8658, "plus": 0.007, "minus": -0.007, "limit": 0, "source": { "text": "Bonfils et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..25B/abstract" } }, "pl_orbsmax": { "v": 0.0496, "plus": 0.0017, "minus": -0.0017, "limit": 0, "source": { "text": "Bonfils et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..25B/abstract" } }, "pl_orbeccen": { "v": 0.116, "plus": 0.097, "minus": -0.097, "limit": 0, "source": { "text": "Bonfils et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..25B/abstract" } }, "pl_orbincl": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_insol": { "v": 1.38, "plus": null, "minus": null, "limit": 0, "source": { "text": "Bonfils et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..25B/abstract" } }, "pl_eqt": { "v": 301.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Bonfils et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..25B/abstract" } }, "st_teff": { "v": 3192.0, "plus": 60.0, "minus": -60.0, "limit": 0, "source": { "text": "Bonfils et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..25B/abstract" } }, "st_rad": { "v": 0.1967, "plus": 0.0077, "minus": -0.0077, "limit": 0, "source": { "text": "Bonfils et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..25B/abstract" } }, "st_mass": { "v": 0.168, "plus": 0.017, "minus": -0.017, "limit": 0, "source": { "text": "Bonfils et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..25B/abstract" } }, "st_lum": { "v": -2.44129, "plus": 0.04444, "minus": -0.04951, "limit": 0, "source": { "text": "Bonfils et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..25B/abstract" } }, "st_age": { "v": 5.0, "plus": null, "minus": null, "limit": -1, "source": { "text": "Bonfils et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..25B/abstract" } }, "st_met": { "v": -0.02, "plus": 0.08, "minus": -0.08, "limit": 0, "source": { "text": "Bonfils et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..25B/abstract" } }, "sy_dist": { "v": 3.37454, "plus": 0.000805, "minus": -0.000805, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Ross 128 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series04-03-ross-128-b-f1b134.webp", "sha256": "56e58bdaa03c669cfb4cbf93153cb06bdff0e94ff692e9b85918664e581dca83", "canonical_original": "World Images/warrior-series04-03-ross-128-b.jpg", "limitations": "The high plateau, mist and sunset are fictional local scenery. Their scale and colors are artistic choices; the stellar-motion measurements do not supply a map of this world. All depicted life is fictional. The visual connection to the cosmos is an artistic theme, not a claimed biological mechanism.", "review": "Accepted: low triangular biological carapace with tucked supports and a folded ventral sensory web; no humanoid anatomy. Rear support partly occluded by the shell. Canyons, moisture and sky exposure are illustrative." }, { "registry_id": "warrior-series04-04-gj-1214-b-a92323", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "GJ 1214", "mapping_basis": "generation manifest", "filename": "warrior-series04-04-gj-1214-b.jpg", "title": "The Reflective Veil", "planet": "GJ 1214 b", "category": "Real exoplanet setting", "series": "warrior-04", "description": "descriptions/warrior-series04-04-gj-1214-b-a92323.html", "image": "images/warrior-series04-04-gj-1214-b.jpg", "scientific_anchor": "GJ 1214 b is a sub-Neptune whose saved catalog radius is 2.733 Earth radii (+0.033/−0.031). It circles its red-dwarf host in roughly 1.58 days. Its measured size and mass place it well beyond an Earth analogue; they do not specify a familiar solid surface beneath the atmosphere. Webb followed the system through an orbit to measure changing infrared emission. A phase curve samples the different hemispheres presented to the telescope. Kempton and colleagues interpreted the result using an atmosphere enriched in heavier elements, beneath a highly reflective layer of aerosols. Later transmission observations reported possible carbon dioxide above those aerosols. Thick haze complicates atmospheric retrieval: different compositions and vertical structures can suppress or reshape spectral features. The proposed chemical interpretation remains something to test, rather than a photographed cloud composition.", "scene_assumptions": "Suspended double-bell organism in a still, inward-folded meditative pose. An invented protected orbital microgravity habitat above a hazy sub-Neptune. The pale cloud globe is an artistic translation of that atmospheric evidence. The orbital chamber, its viewing geometry and its contents are invented; the image does not imply a habitable exposed environment on the planet.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · GJ 1214 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/GJ%201214%20b" }, { "text": "Kempton et al. 2023 · A reflective, metal-rich atmosphere from the JWST phase curve", "url": "https://arxiv.org/abs/2305.06240" }, { "text": "Schlawin et al. · Possible carbon dioxide above the thick aerosols of GJ 1214 b", "url": "https://arxiv.org/abs/2410.10183" }, { "text": " Charbonneau et al. 2009 ", "url": "https://ui.adsabs.harvard.edu/abs/2009Natur.462..891C/abstract" }, { "text": "Mahajan et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...963L..37M/abstract" }, { "text": " Berta et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011ApJ...736...12B/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 2.733, "plus": 0.033, "minus": -0.031, "limit": 0, "source": { "text": "Mahajan et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...963L..37M/abstract" } }, "pl_bmasse": { "v": 8.41, "plus": 0.36, "minus": -0.35, "limit": 0, "source": { "text": "Mahajan et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...963L..37M/abstract" } }, "pl_dens": { "v": 2.26, "plus": 0.11, "minus": -0.11, "limit": 0, "source": { "text": "Mahajan et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...963L..37M/abstract" } }, "pl_orbper": { "v": 1.580404531, "plus": 1.8e-08, "minus": -1.7e-08, "limit": 0, "source": { "text": "Mahajan et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...963L..37M/abstract" } }, "pl_orbsmax": { "v": 0.01505, "plus": 0.00011, "minus": -0.00011, "limit": 0, "source": { "text": "Mahajan et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...963L..37M/abstract" } }, "pl_orbeccen": { "v": 0.0062, "plus": 0.0079, "minus": -0.0044, "limit": 0, "source": { "text": "Mahajan et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...963L..37M/abstract" } }, "pl_orbincl": { "v": 88.98, "plus": 0.094, "minus": -0.085, "limit": 0, "source": { "text": "Mahajan et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...963L..37M/abstract" } }, "pl_insol": { "v": 17.2, "plus": 1.0, "minus": -0.9, "limit": 0, "source": { "text": "Mahajan et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...963L..37M/abstract" } }, "pl_eqt": { "v": 567.0, "plus": 7.6, "minus": -7.6, "limit": 0, "source": { "text": "Mahajan et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...963L..37M/abstract" } }, "st_teff": { "v": 3101.0, "plus": 43.0, "minus": -43.0, "limit": 0, "source": { "text": "Mahajan et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...963L..37M/abstract" } }, "st_rad": { "v": 0.2162, "plus": 0.0025, "minus": -0.0024, "limit": 0, "source": { "text": "Mahajan et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...963L..37M/abstract" } }, "st_mass": { "v": 0.182, "plus": 0.0042, "minus": -0.0041, "limit": 0, "source": { "text": "Mahajan et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...963L..37M/abstract" } }, "st_lum": { "v": -2.40894, "plus": 0.02278, "minus": -0.02286, "limit": 0, "source": { "text": "Mahajan et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...963L..37M/abstract" } }, "st_age": { "v": 3.0, "plus": null, "minus": null, "limit": -1, "source": { "text": " Berta et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011ApJ...736...12B/abstract" } }, "st_met": { "v": 0.24, "plus": 0.11, "minus": -0.11, "limit": 0, "source": { "text": "Mahajan et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJ...963L..37M/abstract" } }, "sy_dist": { "v": 14.6427, "plus": 0.0372, "minus": -0.0372, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "GJ 1214 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series04-04-gj-1214-b-a92323.webp", "sha256": "a6c9a2f0a017618b9be16777883628b8f13ad1def331c7c4f671a574a72ec5df", "canonical_original": "World Images/warrior-series04-04-gj-1214-b.jpg", "limitations": "The pale cloud globe is an artistic translation of that atmospheric evidence. The orbital chamber, its viewing geometry and its contents are invented; the image does not imply a habitable exposed environment on the planet. All depicted life is fictional. The visual connection to the cosmos is an artistic theme, not a claimed biological mechanism.", "review": "Accepted: translucent double-bell membrane around an organic core and folded filament loop, suspended beside a protected orbital window. Haze globe is an artistic view; atmosphere and starlight are not color-calibrated." }, { "registry_id": "warrior-series04-05-kepler-1661-b-1e861e", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-1661", "mapping_basis": "generation manifest", "filename": "warrior-series04-05-kepler-1661-b.jpg", "title": "An Orbit Around Two Suns", "planet": "Kepler-1661 b", "category": "Real exoplanet setting", "series": "warrior-04", "description": "descriptions/warrior-series04-05-kepler-1661-b-1e861e.html", "image": "images/warrior-series04-05-kepler-1661-b.jpg", "scientific_anchor": "Kepler-1661 b travels around both members of an eclipsing binary. Its 175.06 ± 0.06-day orbit surrounds the moving pair, rather than belonging to either star individually. The discovery analysis measured a planetary radius of 3.87 ± 0.06 Earth radii. Transits in such a system depend on the motion of the planet and the stars together. A star is a moving target, so the intervals and durations need not follow the simple pattern of a planet crossing one stationary stellar disk. Modeling the stellar eclipses alongside the planetary transits constrains the shared geometry. The catalog mass, 17 ± 12 Earth masses, carries a large uncertainty. A precise-looking orbital period does not imply comparable precision for every other parameter. The two stars also make the illumination vary with orbital configuration.", "scene_assumptions": "Muscular toroidal organism in a still, inward-folded meditative pose. An unconfirmed fictional moon of the real circumbinary planet. This scene places the viewpoint on an invented moon. No such moon is established by these sources. The nearby planetary disk, paired suns, shadows and rocky terrain form an illustrative arrangement, not a reconstructed view at a calculated observing date.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · Kepler-1661 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-1661%20b" }, { "text": "Socia et al. 2020 · Kepler-1661 b, a transiting circumbinary planet", "url": "https://arxiv.org/abs/2001.02840" }, { "text": "Socia et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....159...94S/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 3.87, "plus": 0.06, "minus": -0.06, "limit": 0, "source": { "text": "Socia et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....159...94S/abstract" } }, "pl_bmasse": { "v": 17.0, "plus": 12.0, "minus": -12.0, "limit": 0, "source": { "text": "Socia et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....159...94S/abstract" } }, "pl_dens": { "v": 1.6, "plus": 1.1, "minus": -1.1, "limit": 0, "source": { "text": "Socia et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....159...94S/abstract" } }, "pl_orbper": { "v": 175.06, "plus": 0.06, "minus": -0.06, "limit": 0, "source": { "text": "Socia et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....159...94S/abstract" } }, "pl_orbsmax": { "v": 0.633, "plus": 0.005, "minus": -0.005, "limit": 0, "source": { "text": "Socia et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....159...94S/abstract" } }, "pl_orbeccen": { "v": 0.057, "plus": 0.005, "minus": -0.005, "limit": 0, "source": { "text": "Socia et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....159...94S/abstract" } }, "pl_orbincl": { "v": 89.46, "plus": 0.02, "minus": -0.02, "limit": 0, "source": { "text": "Socia et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....159...94S/abstract" } }, "pl_insol": { "v": 0.88, "plus": null, "minus": null, "limit": 0, "source": { "text": "Socia et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....159...94S/abstract" } }, "pl_eqt": { "v": 243.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Socia et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....159...94S/abstract" } }, "st_teff": { "v": 5100.0, "plus": 100.0, "minus": -100.0, "limit": 0, "source": { "text": "Socia et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....159...94S/abstract" } }, "st_rad": { "v": 0.762, "plus": 0.01, "minus": -0.01, "limit": 0, "source": { "text": "Socia et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....159...94S/abstract" } }, "st_mass": { "v": 0.841, "plus": 0.022, "minus": -0.022, "limit": 0, "source": { "text": "Socia et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....159...94S/abstract" } }, "st_lum": { "v": -0.51299, "plus": 0.0087, "minus": -0.00887, "limit": 0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } }, "st_age": { "v": 2.0, "plus": 1.0, "minus": -1.0, "limit": 0, "source": { "text": "Socia et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....159...94S/abstract" } }, "st_met": { "v": -0.12, "plus": 0.1, "minus": -0.1, "limit": 0, "source": { "text": "Socia et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....159...94S/abstract" } }, "sy_dist": { "v": 410.607, "plus": 2.8825, "minus": -2.8825, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-1661 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series04-05-kepler-1661-b-1e861e.webp", "sha256": "41d44cc27dc8dbfa37ee8c74e88426e70cfac529f195f133c7820ce331f47e5c", "canonical_original": "World Images/warrior-series04-05-kepler-1661-b.jpg", "limitations": "This scene places the viewpoint on an invented moon. No such moon is established by these sources. The nearby planetary disk, paired suns, shadows and rocky terrain form an illustrative arrangement, not a reconstructed view at a calculated observing date. All depicted life is fictional. The visual connection to the cosmos is an artistic theme, not a claimed biological mechanism.", "review": "Accepted: headless toroidal creature with protective lamellae and sensory pores, physically grounded in a still pose. Two unequal suns and a planetary disk place the view on a fictional moon. Apparent sizes, shadows and stellar visibility are not computed orbital geometry." }, { "registry_id": "warrior-series04-06-wasp-17-b-bc17a3", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "WASP-17", "mapping_basis": "generation manifest", "filename": "warrior-series04-06-wasp-17-b.jpg", "title": "Minerals in the Clouds", "planet": "WASP-17 b", "category": "Real exoplanet setting", "series": "warrior-04", "description": "descriptions/warrior-series04-06-wasp-17-b-bc17a3.html", "image": "images/warrior-series04-06-wasp-17-b.jpg", "scientific_anchor": "WASP-17 b is an inflated giant in a roughly 3.74-day orbit. Its large atmospheric extent makes it a useful target for transmission spectroscopy: during transit, a small portion of the star’s light passes through the planet’s atmospheric edge. Absorption and scattering change the apparent transit depth with wavelength. Webb’s Mid-Infrared Instrument measured a feature near 8.6 micrometers that Grant and colleagues interpreted as evidence for quartz nanocrystals. This links a familiar mineral to an unfamiliar setting: tiny suspended particles in a hot giant’s upper atmosphere. The interpretation comes from comparing spectra with atmospheric and cloud models. It does not show individual crystals, establish a landscape of quartz pillars or require particles lifted from exposed rock. The cloud particles discussed in the study are vastly smaller than the decorative crystalline forms commonly used in science-fiction art.", "scene_assumptions": "Six-vane spiral shell organism in a still, inward-folded meditative pose. A fictional shielded orbital conservatory overlooking a hot gas giant. The scene therefore uses a fictional protected observatory. Its foreground mineral surfaces belong to that invented structure; the cloud globe’s visible colors and texture are an artistic rendering of an unresolved atmosphere.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · WASP-17 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/WASP-17%20b" }, { "text": "Grant et al. 2023 · Quartz clouds in the atmosphere of WASP-17 b", "url": "https://arxiv.org/abs/2310.08637" }, { "text": " Anderson et al. 2010 ", "url": "https://ui.adsabs.harvard.edu/abs/2010ApJ...709..159A/abstract" }, { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" }, { "text": "Southworth et al. 2012", "url": "https://ui.adsabs.harvard.edu/abs/2012MNRAS.426.1338S/abstract" }, { "text": "Anderson et al. 2011", "url": "https://ui.adsabs.harvard.edu/abs/2011MNRAS.416.2108A/abstract" }, { "text": "ExoFOP", "url": "https://exofop.ipac.caltech.edu/tess/view_toi.php" }, { "text": "Panek et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023A&A...677A..51P/abstract" }, { "text": "Bonomo et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017A&A...602A.107B/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 20.96083, "plus": 2.69016, "minus": -2.69016, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "pl_bmasse": { "v": 247.9074, "plus": 73.1009, "minus": -73.1009, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "pl_dens": { "v": 0.082, "plus": 0.0064, "minus": -0.0064, "limit": 0, "source": { "text": "Southworth et al. 2012", "url": "https://ui.adsabs.harvard.edu/abs/2012MNRAS.426.1338S/abstract" } }, "pl_orbper": { "v": 3.73543, "plus": 8e-06, "minus": -8e-06, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "pl_orbsmax": { "v": 0.0515, "plus": 0.00034, "minus": -0.00034, "limit": 0, "source": { "text": "Anderson et al. 2011", "url": "https://ui.adsabs.harvard.edu/abs/2011MNRAS.416.2108A/abstract" } }, "pl_orbeccen": { "v": 0.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "pl_orbincl": { "v": 86.63, "plus": 0.42, "minus": -0.42, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "pl_insol": { "v": 1292.19, "plus": null, "minus": null, "limit": 0, "source": { "text": "ExoFOP", "url": "https://exofop.ipac.caltech.edu/tess/view_toi.php" } }, "pl_eqt": { "v": 1755.0, "plus": 28.0, "minus": -28.0, "limit": 0, "source": { "text": "Southworth et al. 2012", "url": "https://ui.adsabs.harvard.edu/abs/2012MNRAS.426.1338S/abstract" } }, "st_teff": { "v": 6550.0, "plus": 100.0, "minus": -100.0, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "st_rad": { "v": 1.49, "plus": 0.19, "minus": -0.19, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "st_mass": { "v": 2.28, "plus": 0.99, "minus": -0.99, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "st_lum": { "v": 0.61272, "plus": 0.0319, "minus": -0.03196, "limit": 0, "source": { "text": "Panek et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023A&A...677A..51P/abstract" } }, "st_age": { "v": 2.65, "plus": 0.25, "minus": -0.25, "limit": 0, "source": { "text": "Bonomo et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017A&A...602A.107B/abstract" } }, "st_met": { "v": -0.25, "plus": null, "minus": null, "limit": 0, "source": { "text": "Stassun et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153..136S/abstract" } }, "sy_dist": { "v": 405.908, "plus": 8.779, "minus": -8.421, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "WASP-17 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series04-06-wasp-17-b-bc17a3.webp", "sha256": "19d2470e7740171d82c1c84cf7932983638d49842e5ab54e712a2d5ff6aab28a", "canonical_original": "World Images/warrior-series04-06-wasp-17-b.jpg", "limitations": "The scene therefore uses a fictional protected observatory. Its foreground mineral surfaces belong to that invented structure; the cloud globe’s visible colors and texture are an artistic rendering of an unresolved atmosphere. All depicted life is fictional. The visual connection to the cosmos is an artistic theme, not a claimed biological mechanism.", "review": "Accepted: organic spiral core with six prominent nacre vanes, visibly different from previous body plans. Enclosure separates the foreground substrate from the hot gas planet. No claim that the large foreground textures represent atmospheric quartz nanocrystals." }, { "registry_id": "warrior-series04-07-wasp-39-b-973db5", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "WASP-39", "mapping_basis": "generation manifest", "filename": "warrior-series04-07-wasp-39-b.jpg", "title": "Chemistry Written by Starlight", "planet": "WASP-39 b", "category": "Real exoplanet setting", "series": "warrior-04", "description": "descriptions/warrior-series04-07-wasp-39-b-973db5.html", "image": "images/warrior-series04-07-wasp-39-b.jpg", "scientific_anchor": "WASP-39 b is a hot, low-density giant orbiting a Sun-like star every 4.055 days. During transit, its extended atmosphere imprints absorption features on the starlight that passes through it. The resulting spectrum contains information about chemistry at the planetary limb. A feature near 4.05 micrometers was attributed to sulfur dioxide. Tsai and colleagues showed how ultraviolet light can drive reactions that produce this molecule from sulfur-bearing precursors. The abundance inferred from the observations calls for photochemistry beyond a simple chemical-equilibrium picture. This is a concrete way in which a planet is connected to its star: photons alter atmospheric chemistry as well as supplying heat. The result concerns a hot giant’s atmosphere. Sulfur dioxide in this context is not evidence of biology, an ocean or an inhabited surface.", "scene_assumptions": "Colonial chain of living vesicles in a still, inward-folded meditative pose. An invented orbital habitat; the hot atmosphere is outside. The crescent, cloud bands and orbital chamber are illustrative. Their colors and spatial detail are not resolved by the transmission spectrum, and the habitat is a fictional place from which to view the planetary limb.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · WASP-39 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/WASP-39%20b" }, { "text": "Tsai et al. 2023 · Photochemically produced sulfur dioxide in WASP-39 b", "url": "https://www.nature.com/articles/s41586-023-05902-2" }, { "text": " Faedi et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011arXiv1102.1375F/abstract" }, { "text": "Mancini et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..41M/abstract" }, { "text": "Carter et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024NatAs...8.1008C/abstract" }, { "text": "ExoFOP", "url": "https://exofop.ipac.caltech.edu/tess/view_toi.php" }, { "text": "Panek et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023A&A...677A..51P/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 14.336311, "plus": 0.44836, "minus": -0.44836, "limit": 0, "source": { "text": "Mancini et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..41M/abstract" } }, "pl_bmasse": { "v": 89.31023, "plus": 10.17056, "minus": -10.17056, "limit": 0, "source": { "text": "Mancini et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..41M/abstract" } }, "pl_dens": { "v": 0.167, "plus": 0.023, "minus": -0.023, "limit": 0, "source": { "text": "Mancini et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..41M/abstract" } }, "pl_orbper": { "v": 4.0552941, "plus": 3.4e-06, "minus": -3.4e-06, "limit": 0, "source": { "text": "Mancini et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..41M/abstract" } }, "pl_orbsmax": { "v": 0.04828, "plus": 0.00082, "minus": -0.00082, "limit": 0, "source": { "text": "Mancini et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..41M/abstract" } }, "pl_orbeccen": { "v": 0.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Carter et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024NatAs...8.1008C/abstract" } }, "pl_orbincl": { "v": 87.32, "plus": 0.17, "minus": -0.17, "limit": 0, "source": { "text": "Mancini et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..41M/abstract" } }, "pl_insol": { "v": 316.269, "plus": null, "minus": null, "limit": 0, "source": { "text": "ExoFOP", "url": "https://exofop.ipac.caltech.edu/tess/view_toi.php" } }, "pl_eqt": { "v": 1166.0, "plus": 14.0, "minus": -14.0, "limit": 0, "source": { "text": "Mancini et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..41M/abstract" } }, "st_teff": { "v": 5485.0, "plus": 50.0, "minus": -50.0, "limit": 0, "source": { "text": "Mancini et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..41M/abstract" } }, "st_rad": { "v": 0.939, "plus": 0.022, "minus": -0.022, "limit": 0, "source": { "text": "Mancini et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..41M/abstract" } }, "st_mass": { "v": 0.913, "plus": 0.047, "minus": -0.047, "limit": 0, "source": { "text": "Mancini et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..41M/abstract" } }, "st_lum": { "v": -0.12792, "plus": 0.0194, "minus": -0.01286, "limit": 0, "source": { "text": "Panek et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023A&A...677A..51P/abstract" } }, "st_age": { "v": 8.5, "plus": 4.0, "minus": -3.4, "limit": 0, "source": { "text": "Mancini et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..41M/abstract" } }, "st_met": { "v": 0.01, "plus": 0.09, "minus": -0.09, "limit": 0, "source": { "text": "Mancini et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..41M/abstract" } }, "sy_dist": { "v": 213.982, "plus": 1.76, "minus": -1.731, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "WASP-39 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series04-07-wasp-39-b-973db5.webp", "sha256": "849f04f3e3c1b1db2822752bd4ccde39e700443f624f1cd29eb53d50011c50cb", "canonical_original": "World Images/warrior-series04-07-wasp-39-b.jpg", "limitations": "The crescent, cloud bands and orbital chamber are illustrative. Their colors and spatial detail are not resolved by the transmission spectrum, and the habitat is a fictional place from which to view the planetary limb. All depicted life is fictional. The visual connection to the cosmos is an artistic theme, not a claimed biological mechanism.", "review": "Accepted: a connected colony of unequal translucent vesicles and living filaments, gathered in a spiral. Rendered resting near the habitat floor rather than the prompt's freefall arrangement; the book does not claim actual microgravity. Planetary cloud structure and habitat are imagined." }, { "registry_id": "warrior-series04-08-wasp-76-b-80894a", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "WASP-76", "mapping_basis": "generation manifest", "filename": "warrior-series04-08-wasp-76-b.jpg", "title": "Where Iron Can Condense", "planet": "WASP-76 b", "category": "Real exoplanet setting", "series": "warrior-04", "description": "descriptions/warrior-series04-08-wasp-76-b-80894a.html", "image": "images/warrior-series04-08-wasp-76-b.jpg", "scientific_anchor": "WASP-76 b completes an orbit in about 1.81 days. Its intense irradiation produces an atmosphere hot enough for gaseous metals to become spectroscopic tracers. High-resolution observations detected an asymmetric absorption signal attributed to neutral iron across the transit. Ehrenreich and colleagues interpreted that asymmetry in terms of atmospheric circulation and iron condensation as gas moves into cooler regions. The frequently used description of iron rain is a physical interpretation of the signal, rather than an observation of falling droplets. Later three-dimensional modeling showed that a strong temperature difference between the limbs could also reproduce the signal without requiring iron condensation. Rotation, winds, chemistry and temperature affect the measured absorption together. Their effects must be separated before a unique weather map can be claimed.", "scene_assumptions": "Broad folded diamond membrane in a still, inward-folded meditative pose. A fictional shielded observatory above an ultra-hot Jupiter. The illustration shows a fictional shielded viewpoint over the day–night boundary. The copper glow represents an artistic atmosphere, not molten ground. Neither the cloud pattern nor the safety of the imagined habitat follows from the observations.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · WASP-76 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/WASP-76%20b" }, { "text": "Ehrenreich et al. 2020 · Nightside condensation of iron in an ultra-hot giant", "url": "https://arxiv.org/abs/2003.05528" }, { "text": "Wardenier et al. 2021 · Decomposing the iron signal with three-dimensional radiative transfer", "url": "https://arxiv.org/abs/2105.11034" }, { "text": "West et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016A&A...585A.126W/abstract" }, { "text": "Ehrenreich et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.580..597E/abstract" }, { "text": "Fu et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....162..108F/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 20.78145022, "plus": 0.86309151, "minus": -0.85188253, "limit": 0, "source": { "text": "Ehrenreich et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.580..597E/abstract" } }, "pl_bmasse": { "v": 284.13859586, "plus": 4.4495977, "minus": -4.13176929, "limit": 0, "source": { "text": "Ehrenreich et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.580..597E/abstract" } }, "pl_dens": { "v": 0.17, "plus": 0.02, "minus": -0.02, "limit": 0, "source": { "text": "Ehrenreich et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.580..597E/abstract" } }, "pl_orbper": { "v": 1.80988198, "plus": 6.4e-07, "minus": -5.6e-07, "limit": 0, "source": { "text": "Ehrenreich et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.580..597E/abstract" } }, "pl_orbsmax": { "v": 0.033, "plus": 0.0002, "minus": -0.0002, "limit": 0, "source": { "text": "Ehrenreich et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.580..597E/abstract" } }, "pl_orbeccen": { "v": 0.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Ehrenreich et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.580..597E/abstract" } }, "pl_orbincl": { "v": 89.623, "plus": 0.005, "minus": -0.034, "limit": 0, "source": { "text": "Ehrenreich et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.580..597E/abstract" } }, "pl_insol": { "v": 4104.0, "plus": 896.0, "minus": -896.0, "limit": 0, "source": { "text": "Ehrenreich et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.580..597E/abstract" } }, "pl_eqt": { "v": 2228.0, "plus": 122.0, "minus": -122.0, "limit": 0, "source": { "text": "Ehrenreich et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.580..597E/abstract" } }, "st_teff": { "v": 6329.0, "plus": 65.0, "minus": -65.0, "limit": 0, "source": { "text": "Ehrenreich et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.580..597E/abstract" } }, "st_rad": { "v": 1.756, "plus": 0.071, "minus": -0.071, "limit": 0, "source": { "text": "Ehrenreich et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.580..597E/abstract" } }, "st_mass": { "v": 1.458, "plus": 0.021, "minus": -0.021, "limit": 0, "source": { "text": "Ehrenreich et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.580..597E/abstract" } }, "st_lum": { "v": 0.65418, "plus": 0.0369, "minus": -0.03718, "limit": 0, "source": { "text": "Fu et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....162..108F/abstract" } }, "st_age": { "v": 1.816, "plus": 0.274, "minus": -0.274, "limit": 0, "source": { "text": "Ehrenreich et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.580..597E/abstract" } }, "st_met": { "v": 0.366, "plus": 0.053, "minus": -0.053, "limit": 0, "source": { "text": "Ehrenreich et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.580..597E/abstract" } }, "sy_dist": { "v": 194.459, "plus": 6.206, "minus": -5.839, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "WASP-76 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series04-08-wasp-76-b-80894a.webp", "sha256": "3063697ad9a81567ecd1c540cf28bd2234c40c465311cd768c003aa31b8ca333", "canonical_original": "World Images/warrior-series04-08-wasp-76-b.jpg", "limitations": "The illustration shows a fictional shielded viewpoint over the day–night boundary. The copper glow represents an artistic atmosphere, not molten ground. Neither the cloud pattern nor the safety of the imagined habitat follows from the observations. All depicted life is fictional. The visual connection to the cosmos is an artistic theme, not a claimed biological mechanism.", "review": "Accepted: single broad four-point folded membrane, mineralized rim and inward central tissue, no head or humanoid limbs. Foreground is an interior observation slab. Bright cloud boundary is artistic and does not show verified iron rain or exposed lava." }, { "registry_id": "warrior-series04-09-hr-8799-e-e3d14a", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "HR 8799", "mapping_basis": "generation manifest", "filename": "warrior-series04-09-hr-8799-e.jpg", "title": "Light from a Young Giant", "planet": "HR 8799 e", "category": "Real exoplanet setting", "series": "warrior-04", "description": "descriptions/warrior-series04-09-hr-8799-e-e3d14a.html", "image": "images/warrior-series04-09-hr-8799-e.jpg", "scientific_anchor": "HR 8799 e is one of the directly imaged giant planets around the young star HR 8799. Unlike a transit measurement, direct imaging separates planetary light from the much brighter host. A young giant can be bright in the infrared because it is still releasing internal heat. The GRAVITY instrument combined light from the Very Large Telescope Interferometer to obtain precise position measurements and a K-band spectrum. Atmospheric modeling indicated substantial carbon monoxide and cloud opacity associated with iron and silicate particles. The interpretation connects observed light to temperature, composition and vertical mixing. Direct detection does not mean a detailed photograph of the planetary disk. The planet’s radius, gravity and mass depend on model interpretation; the saved catalog mass estimate has a particularly broad uncertainty. The observations constrain a distant luminous atmosphere, not mountains or moon surfaces.", "scene_assumptions": "Branching pentaradial reef organism in a still, inward-folded meditative pose. An unconfirmed fictional icy moon of a directly imaged giant. The icy foreground belongs to an invented moon. The giant’s ember coloring translates its thermal character into visible artwork and is not a calibrated human-eye view. The moon, ice and local sky brightness remain speculative.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · HR 8799 e · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/HR%208799%20e" }, { "text": "GRAVITY Collaboration 2019 · Interferometric detection and K-band spectroscopy of HR 8799 e", "url": "https://arxiv.org/abs/1903.11903" }, { "text": " Marois et al. 2010 ", "url": "https://ui.adsabs.harvard.edu/abs/2010Natur.468.1080M/abstract" }, { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" }, { "text": "Zurlo et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016A&A...587A..57Z/abstract" }, { "text": "Konopacky et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016AJ....152...28K/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 13.11453, "plus": 1.45717, "minus": -1.23299, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "pl_bmasse": { "v": 3178.3, "plus": 2224.81, "minus": -1271.32, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "pl_dens": { "v": 7.74, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 20815.6, "plus": 1128.62, "minus": -1128.62, "limit": 0, "source": { "text": "Zurlo et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016A&A...587A..57Z/abstract" } }, "pl_orbsmax": { "v": 16.4, "plus": 2.1, "minus": -1.1, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "pl_orbeccen": { "v": 0.15, "plus": 0.08, "minus": -0.08, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "pl_orbincl": { "v": 25.0, "plus": 8.0, "minus": -8.0, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "pl_insol": { "v": 0.0201, "plus": 0.004, "minus": -0.004, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 1150.0, "plus": 50.0, "minus": -50.0, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "st_teff": { "v": 7400.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "st_rad": { "v": 1.49338, "plus": 0.049341, "minus": -0.050935, "limit": 0, "source": { "text": "Konopacky et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016AJ....152...28K/abstract" } }, "st_mass": { "v": 1.51, "plus": 0.038, "minus": -0.024, "limit": 0, "source": { "text": "Zurlo et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016A&A...587A..57Z/abstract" } }, "st_lum": { "v": 0.73347, "plus": 0.01645, "minus": -0.01535, "limit": 0, "source": { "text": "Konopacky et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016AJ....152...28K/abstract" } }, "st_age": { "v": 0.03, "plus": null, "minus": null, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "st_met": { "v": -0.5, "plus": null, "minus": null, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "sy_dist": { "v": 41.2441, "plus": 0.1515, "minus": -0.1505, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "HR 8799 e", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series04-09-hr-8799-e-e3d14a.webp", "sha256": "e9b8d0464cb80e021dd30cbcbff1329f3ca7dad8bb6bd294865afd31d186c1f3", "canonical_original": "World Images/warrior-series04-09-hr-8799-e.jpg", "limitations": "The icy foreground belongs to an invented moon. The giant’s ember coloring translates its thermal character into visible artwork and is not a calibrated human-eye view. The moon, ice and local sky brightness remain speculative. All depicted life is fictional. The visual connection to the cosmos is an artistic theme, not a claimed biological mechanism.", "review": "Accepted: low pentaradial organism with armored rootlike supports and a branching sensory crown; no head/torso/hands. Moon and ice are fictional. Planetary reddish glow is a visible artistic translation of infrared thermal character, with uncalibrated scale and sky brightness." }, { "registry_id": "warrior-series04-10-psr-b1620-26-b-763b9a", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "PSR B1620-26", "mapping_basis": "generation manifest", "filename": "warrior-series04-10-psr-b1620-26-b.jpg", "title": "An Ancient World in a Star Cluster", "planet": "PSR B1620-26 b", "category": "Real exoplanet setting", "series": "warrior-04", "description": "descriptions/warrior-series04-10-psr-b1620-26-b-763b9a.html", "image": "images/warrior-series04-10-psr-b1620-26-b.jpg", "scientific_anchor": "PSR B1620-26 b belongs to a system containing a pulsar and a white dwarf in the globular cluster M4. Pulsar timing first revealed the gravitational influence of a distant companion. Hubble observations of the white dwarf helped constrain the system’s orientation and the companion’s planetary mass. Sigurdsson and colleagues inferred a mass of roughly 2.5 ± 1 Jupiter masses, recorded in the saved catalog as about 795 ± 318 Earth masses. The proposed history involves an old planet and dynamical encounters in a dense stellar environment. That evolutionary history is an inference, not a directly witnessed sequence. The white dwarf’s comparatively young cooling age does not date the planet’s formation. Cooling age measures the time since the remnant entered that stage, while a planet can predate the interaction that assembled its current system. This distinction allows an ancient planet to accompany a younger-looking remnant.", "scene_assumptions": "Asymmetric spiral carapace in a still, inward-folded meditative pose. A fictional moon in a planet–pulsar–white-dwarf system within M4. The rocky foreground is an invented moon. The dense starfield evokes the cluster environment, but individual stellar positions and brightnesses are not a simulated sky. The pulsar does not appear as an enormous visible beacon.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · PSR B1620-26 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/PSR%20B1620-26%20b" }, { "text": "Sigurdsson et al. 2003 · A young white dwarf companion and evidence for early planet formation", "url": "https://assets.science.nasa.gov/content/dam/science/missions/hubble/releases/2003/07/STScI-01EVSRYS458HXVNFNHTX1X44RE.pdf" }, { "text": " Sigurdsson et al. 2003 ", "url": "https://ui.adsabs.harvard.edu/abs/2003Sci...301..193S/abstract" }, { "text": " Arzoumanian et al. 1996 ", "url": "https://ui.adsabs.harvard.edu/abs/1996ASPC..105..525A/abstract" } ], "measurements": { "pl_rade": { "v": 13.3, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_bmasse": { "v": 794.575, "plus": 317.83, "minus": -317.83, "limit": 0, "source": { "text": " Sigurdsson et al. 2003 ", "url": "https://ui.adsabs.harvard.edu/abs/2003Sci...301..193S/abstract" } }, "pl_dens": { "v": 1.86, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_orbsmax": { "v": 23.0, "plus": null, "minus": null, "limit": 0, "source": { "text": " Sigurdsson et al. 2003 ", "url": "https://ui.adsabs.harvard.edu/abs/2003Sci...301..193S/abstract" } }, "pl_orbeccen": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_orbincl": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_insol": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_eqt": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_teff": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_rad": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_mass": { "v": 1.35, "plus": null, "minus": null, "limit": 0, "source": { "text": " Sigurdsson et al. 2003 ", "url": "https://ui.adsabs.harvard.edu/abs/2003Sci...301..193S/abstract" } }, "st_lum": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_age": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_met": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "sy_dist": { "v": null, "plus": null, "minus": null, "limit": null, "source": { "text": " Arzoumanian et al. 1996 ", "url": "https://ui.adsabs.harvard.edu/abs/1996ASPC..105..525A/abstract" } } }, "original_context": [], "setting_name": "PSR B1620-26 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series04-10-psr-b1620-26-b-763b9a.webp", "sha256": "c7c3416b5bc65b0bc20321e58320315cdd3257d86ee60788a4cac21c96f6fc27", "canonical_original": "World Images/warrior-series04-10-psr-b1620-26-b.jpg", "limitations": "The rocky foreground is an invented moon. The dense starfield evokes the cluster environment, but individual stellar positions and brightnesses are not a simulated sky. The pulsar does not appear as an enormous visible beacon. All depicted life is fictional. The visual connection to the cosmos is an artistic theme, not a claimed biological mechanism.", "review": "Accepted: asymmetrical double-spiral chambered shell with a broad living muscular base and retracted sensory folds; no humanoid anatomy. Invented rocky moon, illustrative dense cluster-like starfield; the concentrated stellar patch is compositional and not a simulated sky from the planet. No enormous pulsar or visible lighthouse beam." }, { "registry_id": "warrior-series05-01-wasp-12-b-7611bf", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "WASP-12", "mapping_basis": "generation manifest", "filename": "warrior-series05-01-wasp-12-b.jpg", "title": "The Star That Takes a World", "planet": "WASP-12 b", "category": "Real exoplanet setting", "series": "warrior-05", "description": "descriptions/warrior-series05-01-wasp-12-b-7611bf.html", "image": "images/warrior-series05-01-wasp-12-b.jpg", "scientific_anchor": "WASP-12 b is an inflated giant in an orbit lasting about 1.09 days. Close to its host, the difference in stellar gravity across the planet becomes significant. Tidal models predict a departure from a perfectly spherical shape, with elongation related to the direction of the star. [1,2] Ultraviolet observations support the presence of extended, escaping atmospheric material. This is evidence about absorption and the spatial extent of gas, rather than a resolved photograph of the diffuse stream pictured here. Its rendered morphology should be read as an interpretation. [4] Hubble observations also found very low reflectivity in the visible wavelength range studied. Low reflected light does not imply that a hot planet emits no radiation: reflected starlight and the planet’s own thermal emission are different components of the energy budget. [3]", "scene_assumptions": "Humanoid / three-eyed obsidian sovereign. An invented protected orbital observation ledge in the WASP-12 system. The elongated dark planet and luminous gas bridge interpret tidal deformation and atmospheric escape. The elongation, separation, stream brightness and color are exaggerated for legibility rather than fitted to an observing epoch. This is not a resolved photograph. The observer, shielding and humanoid are fictional.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · WASP-12 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/WASP-12%20b" }, { "text": "Li et al. 2010 · tidal deformation model", "url": "https://www.nature.com/articles/nature08715" }, { "text": "NASA/Hubble · low optical reflectivity", "url": "https://science.nasa.gov/missions/hubble/nasas-hubble-captures-blistering-pitch-black-planet/" }, { "text": "NASA/Hubble · atmospheric escape", "url": "https://science.nasa.gov/missions/hubble/hubble-finds-star-eating-a-planet/" }, { "text": "Leonardi et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...686A..84L/abstract" }, { "text": "Collins et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153...78C/abstract" }, { "text": " Hebb et al. 2009 ", "url": "https://ui.adsabs.harvard.edu/abs/2009ApJ...693.1920H/abstract" }, { "text": "Turner et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016MNRAS.459..789T/abstract" }, { "text": "ExoFOP", "url": "https://exofop.ipac.caltech.edu/tess/view_toi.php" }, { "text": "Öztürk & Erdem 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019MNRAS.486.2290O/abstract" }, { "text": "Barstow et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017ApJ...834...50B/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 22.02564708, "plus": 0.9863903, "minus": -0.97518132, "limit": 0, "source": { "text": "Leonardi et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...686A..84L/abstract" } }, "pl_bmasse": { "v": 467.2101, "plus": 24.15508, "minus": -21.93027, "limit": 0, "source": { "text": "Collins et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153...78C/abstract" } }, "pl_dens": { "v": 0.266, "plus": 0.015, "minus": -0.014, "limit": 0, "source": { "text": "Collins et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....153...78C/abstract" } }, "pl_orbper": { "v": 1.091418901, "plus": 1.8e-08, "minus": -1.8e-08, "limit": 0, "source": { "text": "Leonardi et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...686A..84L/abstract" } }, "pl_orbsmax": { "v": 0.0234, "plus": 0.001, "minus": -0.001, "limit": 0, "source": { "text": "Leonardi et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...686A..84L/abstract" } }, "pl_orbeccen": { "v": 0.0447, "plus": 0.0043, "minus": -0.0043, "limit": 0, "source": { "text": "Turner et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016MNRAS.459..789T/abstract" } }, "pl_orbincl": { "v": 81.8, "plus": 0.29, "minus": -0.27, "limit": 0, "source": { "text": "Leonardi et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...686A..84L/abstract" } }, "pl_insol": { "v": 8220.584, "plus": null, "minus": null, "limit": 0, "source": { "text": "ExoFOP", "url": "https://exofop.ipac.caltech.edu/tess/view_toi.php" } }, "pl_eqt": { "v": 2601.0, "plus": 18.0, "minus": -18.0, "limit": 0, "source": { "text": "Öztürk & Erdem 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019MNRAS.486.2290O/abstract" } }, "st_teff": { "v": 6265.0, "plus": 50.0, "minus": -50.0, "limit": 0, "source": { "text": "Leonardi et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...686A..84L/abstract" } }, "st_rad": { "v": 1.69, "plus": 0.019, "minus": -0.018, "limit": 0, "source": { "text": "Leonardi et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...686A..84L/abstract" } }, "st_mass": { "v": 1.325, "plus": 0.026, "minus": -0.018, "limit": 0, "source": { "text": "Leonardi et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...686A..84L/abstract" } }, "st_lum": { "v": 0.59711, "plus": 0.02779, "minus": -0.02505, "limit": 0, "source": { "text": "Barstow et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017ApJ...834...50B/abstract" } }, "st_age": { "v": 3.05, "plus": 0.32, "minus": -0.32, "limit": 0, "source": { "text": "Leonardi et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...686A..84L/abstract" } }, "st_met": { "v": 0.12, "plus": 0.07, "minus": -0.07, "limit": 0, "source": { "text": "Leonardi et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...686A..84L/abstract" } }, "sy_dist": { "v": 427.246, "plus": 6.068, "minus": -5.903, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "WASP-12 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series05-01-wasp-12-b-7611bf.webp", "sha256": "c3ad0507406512a2895cd767c27890dc1ab33a74c32fddc8c7fd11854fdd765e", "canonical_original": "World Images/warrior-series05-01-wasp-12-b.jpg", "limitations": "The elongated dark planet and luminous gas bridge interpret tidal deformation and atmospheric escape. The elongation, separation, stream brightness and color are exaggerated for legibility rather than fitted to an observing epoch. This is not a resolved photograph. The observer, shielding and humanoid are fictional. All beings, civilizations and technology are fictional. No motives, moral alignment or character history is asserted.", "review": "Accepted: a three-eyed humanoid with fibrous crown and unreadable expression; the egg-shaped dark planet and escaping gas dominate. The rendered gas bridge and elongation are interpretive and exaggerated, not resolved data." }, { "registry_id": "warrior-series05-02-k2-22-b-34f5da", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "K2-22", "mapping_basis": "generation manifest", "filename": "warrior-series05-02-k2-22-b.jpg", "title": "A World Unraveling into Dust", "planet": "K2-22 b", "category": "Real exoplanet setting", "series": "warrior-05", "description": "descriptions/warrior-series05-02-k2-22-b-34f5da.html", "image": "images/warrior-series05-02-k2-22-b.jpg", "scientific_anchor": "K2-22 b repeats its transit signal on an approximately 9.15-hour orbit. The occultation changes markedly from one observation to another. A disintegrating body shedding dust explains the variable signal, and the discovery analysis considers a leading dust tail as part of that interpretation. [1,2] Follow-up observations recovered the transits at multiple epochs and documented continued changes in their depth and shape. The evidence is a changing light curve: the amount of stellar light removed from our line of sight varies with the distribution of occulting material. [3] A dusty transit is not a clean measurement of a solid planetary disk. The tabulated radius must therefore be interpreted with the source method in mind. Dust abundance, grain properties and geometry can affect the signal without a comparable change in the surviving body’s physical radius. [1,2]", "scene_assumptions": "Nonhumanoid / filament-crowned aperture. An invented protected orbital viewpoint near K2-22 b. The surviving body, copper dust arc and stellar occultation illustrate the disintegration interpretation. Dust color, structure and angular extent are not measured images. The illuminated dust is not a jet of fire or a procession of resolved boulders. The creature and protected viewpoint are fictional.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · K2-22 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/K2-22%20b" }, { "text": "Sanchis-Ojeda et al. 2015 · disintegrating planet and leading tail", "url": "https://orbi.uliege.be/handle/2268/182144" }, { "text": "Colón et al. 2018 · variable transits", "url": "https://ntrs.nasa.gov/citations/20190002462" }, { "text": "Adams et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2..152A/abstract" }, { "text": "Sanchis-Ojeda et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...812..112S/abstract" }, { "text": "Dressing et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....154..207D/abstract" }, { "text": "Crossfield et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJS..226....7C/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 2.3, "plus": 0.1, "minus": -0.1, "limit": 0, "source": { "text": "Adams et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2..152A/abstract" } }, "pl_bmasse": { "v": 444.962, "plus": null, "minus": null, "limit": 1, "source": { "text": "Sanchis-Ojeda et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...812..112S/abstract" } }, "pl_dens": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_orbper": { "v": 0.381073, "plus": 2.4e-05, "minus": -2.4e-05, "limit": 0, "source": { "text": "Adams et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2..152A/abstract" } }, "pl_orbsmax": { "v": 0.009, "plus": 0.0, "minus": 0.0, "limit": 0, "source": { "text": "Dressing et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....154..207D/abstract" } }, "pl_orbeccen": { "v": 0.19, "plus": 0.221175, "minus": -0.152914, "limit": 0, "source": { "text": "Dressing et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....154..207D/abstract" } }, "pl_orbincl": { "v": 90.6, "plus": 8.0, "minus": -7.0, "limit": 0, "source": { "text": "Adams et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2..152A/abstract" } }, "pl_insol": { "v": 114.0, "plus": 45.0, "minus": -45.0, "limit": 0, "source": { "text": "Crossfield et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJS..226....7C/abstract" } }, "pl_eqt": { "v": 2100.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Sanchis-Ojeda et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...812..112S/abstract" } }, "st_teff": { "v": 3879.0, "plus": 90.0, "minus": -90.0, "limit": 0, "source": { "text": "Adams et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2..152A/abstract" } }, "st_rad": { "v": 0.58, "plus": 0.03, "minus": -0.03, "limit": 0, "source": { "text": "Adams et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2..152A/abstract" } }, "st_mass": { "v": 0.595292, "plus": 0.059529, "minus": -0.059529, "limit": 0, "source": { "text": "Dressing et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017AJ....154..207D/abstract" } }, "st_lum": { "v": -1.0744, "plus": 0.01092, "minus": -0.0112, "limit": 0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } }, "st_age": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_met": { "v": 0.032, "plus": 0.12, "minus": -0.12, "limit": 0, "source": { "text": "Adams et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2..152A/abstract" } }, "sy_dist": { "v": 243.836, "plus": 2.7975, "minus": -2.7975, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "K2-22 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series05-02-k2-22-b-34f5da.webp", "sha256": "c58b578d2738c338580f82cebf14d7dddd1b15babc092ae1589644939686bfef", "canonical_original": "World Images/warrior-series05-02-k2-22-b.jpg", "limitations": "The surviving body, copper dust arc and stellar occultation illustrate the disintegration interpretation. Dust color, structure and angular extent are not measured images. The illuminated dust is not a jet of fire or a procession of resolved boulders. The creature and protected viewpoint are fictional. All beings, civilizations and technology are fictional. No motives, moral alignment or character history is asserted.", "review": "Accepted after targeted edit: the nonhumanoid aperture and tentacles remain; all large fragments in the tail were replaced with diffuse fine dust. The curved dust path and color remain illustrative, not an orbital fit." }, { "registry_id": "warrior-series05-03-55-cnc-e-0ce5d8", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "55 Cnc", "mapping_basis": "generation manifest", "filename": "warrior-series05-03-55-cnc-e.jpg", "title": "The Incandescent Hemisphere", "planet": "55 Cnc e", "category": "Real exoplanet setting", "series": "warrior-05", "description": "descriptions/warrior-series05-03-55-cnc-e-0ce5d8.html", "image": "images/warrior-series05-03-55-cnc-e.jpg", "scientific_anchor": "55 Cnc e completes an orbit in about 0.737 days. The saved composite catalog gives a radius of 1.875 ± 0.029 Earth radii and a mass of 7.99 (+0.32/−0.33) Earth masses. These are the values retained for consistency with the atlas snapshot; a source paper can adopt a different parameter solution. The full companion table preserves the source of each measurement. [1] Hu and colleagues used JWST observations of thermal emission between 4 and 12 micrometres to investigate the planet’s atmosphere. Their analysis favors a volatile atmosphere containing carbon-bearing gases, rather than a tenuous layer made only of vaporized rock. Carbon monoxide and carbon dioxide are plausible contributors. This interpretation comes from a spectrum, not a photograph of a molten hemisphere. [2] A magma ocean could supply gases and help sustain a secondary atmosphere. That physical possibility motivates the incandescent landscape, but the distribution of crust, melt and clouds remains unknown. Heating, atmospheric circulation and surface emission all affect the light an observer receives. The artwork therefore makes a clear distinction between spectral evidence and imagined geography. [2]", "scene_assumptions": "Humanoid / veiled ivory and malachite regent. A fictional shielded orbital enclosure above 55 Cnc e. The molten hemisphere, crustal islands and atmospheric rim are an interpretation, not a resolved map. The atmosphere’s exact composition remains model dependent. Window filtering, radiation protection and the humanoid are fictional; exposed life on this scorching world is not implied.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · 55 Cnc e · saved 25 September 2026 snapshot", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/55%20Cnc%20e" }, { "text": "Hu et al. 2024 · A secondary atmosphere on the rocky exoplanet 55 Cancri e", "url": "https://arxiv.org/abs/2405.04744" }, { "text": " McArthur et al. 2004 ", "url": "https://ui.adsabs.harvard.edu/abs/2004ApJ...614L..81M/abstract" }, { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" }, { "text": "ExoFOP", "url": "https://exofop.ipac.caltech.edu/tess/view_toi.php" }, { "text": "Demory et al. 2011", "url": "https://ui.adsabs.harvard.edu/abs/2011A&A...533A.114D/abstract" }, { "text": "Knapp et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....160...23K/abstract" }, { "text": " Marcy et al. 2002 ", "url": "https://ui.adsabs.harvard.edu/abs/2002ApJ...581.1375M/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 1.875, "plus": 0.029, "minus": -0.029, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "pl_bmasse": { "v": 7.99, "plus": 0.32, "minus": -0.33, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "pl_dens": { "v": 6.66, "plus": 0.43, "minus": -0.4, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "pl_orbper": { "v": 0.7365474, "plus": 1.3e-06, "minus": -1.4e-06, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "pl_orbsmax": { "v": 0.01544, "plus": 5e-05, "minus": -5e-05, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "pl_orbeccen": { "v": 0.05, "plus": 0.03, "minus": -0.03, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "pl_orbincl": { "v": 83.59, "plus": 0.47, "minus": -0.44, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "pl_insol": { "v": 2657.8322, "plus": null, "minus": null, "limit": 0, "source": { "text": "ExoFOP", "url": "https://exofop.ipac.caltech.edu/tess/view_toi.php" } }, "pl_eqt": { "v": 1958.0, "plus": 15.0, "minus": -15.0, "limit": 0, "source": { "text": "Demory et al. 2011", "url": "https://ui.adsabs.harvard.edu/abs/2011A&A...533A.114D/abstract" } }, "st_teff": { "v": 5172.0, "plus": 18.0, "minus": -18.0, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "st_rad": { "v": 0.943, "plus": 0.01, "minus": -0.01, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "st_mass": { "v": 0.905, "plus": 0.015, "minus": -0.015, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "st_lum": { "v": -0.19695, "plus": 0.0125, "minus": -0.01039, "limit": 0, "source": { "text": "Knapp et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....160...23K/abstract" } }, "st_age": { "v": 5.5, "plus": 2.5, "minus": -2.5, "limit": 0, "source": { "text": " Marcy et al. 2002 ", "url": "https://ui.adsabs.harvard.edu/abs/2002ApJ...581.1375M/abstract" } }, "st_met": { "v": 0.35, "plus": 0.1, "minus": -0.1, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "sy_dist": { "v": 12.5855, "plus": 0.0124, "minus": -0.0123, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "55 Cnc e", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series05-03-55-cnc-e-0ce5d8.webp", "sha256": "0066dbea29f542cebc44689d3dc4b8b9e1b49afc2b83bfa16552fdcf7259f5cc", "canonical_original": "World Images/warrior-series05-03-55-cnc-e.jpg", "limitations": "The molten hemisphere, crustal islands and atmospheric rim are an interpretation, not a resolved map. The atmosphere’s exact composition remains model dependent. Window filtering, radiation protection and the humanoid are fictional; exposed life on this scorching world is not implied. All beings, civilizations and technology are fictional. No motives, moral alignment or character history is asserted.", "review": "Accepted: ivory humanoid with dark sensory cavities, filament veil and imposing stillness. A clearly rocky incandescent hemisphere dominates; molten geography and apparent atmospheric rim are speculative." }, { "registry_id": "warrior-series05-04-kepler-16-b-062df8", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-16", "mapping_basis": "generation manifest", "filename": "warrior-series05-04-kepler-16-b.jpg", "title": "When One Sun Crosses Another", "planet": "Kepler-16 b", "category": "Real exoplanet setting", "series": "warrior-05", "description": "descriptions/warrior-series05-04-kepler-16-b-062df8.html", "image": "images/warrior-series05-04-kepler-16-b.jpg", "scientific_anchor": "Kepler-16 b orbits Kepler-16. The saved catalog gives an orbital period of 228.776 (+0.02/−0.037) days. Its discovery method is recorded as transit. These quantities describe the real astronomical setting behind the illustration. [1] The orbit of Kepler-16 b surrounds both members of its stellar binary. Transits across moving stars are more complicated than a planet repeatedly crossing one stationary stellar disk: the timing and duration depend on where each star is when the planet passes. The binary and planet must be modeled together. [1] The catalog radius is 8.4493 ± 0.0291 Earth radii. The mass entry is 105.833 ± 5.085 Earth masses. The source papers and full table retain the provenance of each parameter. [1]", "scene_assumptions": "Humanoid / tentacled basalt sovereign. An invented moon of circumbinary planet Kepler-16 b, in an interpretive telephoto composition. The two host stars are real, while the moon, terrain and humanoid are fictional. The smaller cooler star is shown crossing part of the warmer star in an illustrative alignment. Stellar disks are enlarged for visual explanation; this is not a predicted eclipse or a calibrated naked-eye sky. The gas giant is outside the frame.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · Kepler-16 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-16%20b" }, { "text": "Doyle et al. 2011", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" }, { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" }, { "text": "Q1-Q8 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 8.4493, "plus": 0.0291, "minus": -0.0291, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_bmasse": { "v": 105.833, "plus": 5.085, "minus": -5.085, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_dens": { "v": 0.964, "plus": 0.047, "minus": -0.046, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbper": { "v": 228.776, "plus": 0.02, "minus": -0.037, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbsmax": { "v": 0.7048, "plus": 0.0011, "minus": -0.0011, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbeccen": { "v": 0.0069, "plus": 0.001, "minus": -0.0015, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbincl": { "v": 90.0322, "plus": 0.0022, "minus": -0.0023, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_insol": { "v": 0.2517, "plus": 0.0012, "minus": -0.0012, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 205.9, "plus": 6.95, "minus": -6.95, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "st_teff": { "v": 4450.0, "plus": 150.0, "minus": -150.0, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "st_rad": { "v": 0.6489, "plus": 0.0013, "minus": -0.0013, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "st_mass": { "v": 0.6897, "plus": 0.0035, "minus": -0.0034, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "st_lum": { "v": -0.90301, "plus": 0.00147, "minus": -0.00148, "limit": 0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } }, "st_age": { "v": 3.8, "plus": 3.7, "minus": -3.7, "limit": 0, "source": { "text": "Q1-Q8 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" } }, "st_met": { "v": -0.3, "plus": 0.2, "minus": -0.2, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "sy_dist": { "v": 75.0852, "plus": 0.1541, "minus": -0.1536, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-16 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series05-04-kepler-16-b-062df8.webp", "sha256": "e6e6cd8ba30641bc5baa8e8dfc6c879c4c1e4cd2250086de627a9c0ee7802597", "canonical_original": "World Images/warrior-series05-04-kepler-16-b.jpg", "limitations": "The two host stars are real, while the moon, terrain and humanoid are fictional. The smaller cooler star is shown crossing part of the warmer star in an illustrative alignment. Stellar disks are enlarged for visual explanation; this is not a predicted eclipse or a calibrated naked-eye sky. The gas giant is outside the frame. All beings, civilizations and technology are fictional. No motives, moral alignment or character history is asserted.", "review": "Accepted: tentacled humanoid under two unequal self-luminous stellar disks in partial overlap. Stellar angular sizes and their ratio are exaggerated; this is an interpretive composite rather than a literal view from the fictional moon. Terrain and slight haze are invented." }, { "registry_id": "warrior-series05-05-wd-1856-534-b-f841d1", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "WD 1856+534", "mapping_basis": "generation manifest", "filename": "warrior-series05-05-wd-1856-534-b.jpg", "title": "A Giant Hides a Dead Star", "planet": "WD 1856+534 b", "category": "Real exoplanet setting", "series": "warrior-05", "description": "descriptions/warrior-series05-05-wd-1856-534-b-f841d1.html", "image": "images/warrior-series05-05-wd-1856-534-b.jpg", "scientific_anchor": "WD 1856+534 b passes in front of a white dwarf every 1.4079405 ± 0.0000011 days. White dwarfs are compact stellar remnants. The combination of a giant planet and a small host produces a distinctive transit geometry, and the close present orbit raises questions about the planet’s history after the host’s red-giant phase. [1,2] A 2026 JWST analysis reports an atmosphere containing hydrocarbons and aerosols, with thermal emission from the planetary nightside. Its spectral models constrain the mass to 4.3–10.9 Jupiter masses. These are model-dependent atmospheric constraints, not a direct weighing of the planet. [3] The saved composite table retains an older entry of 4386.054 Earth masses without an upper-limit flag. That discovery-era value should be read as an old upper constraint, not an exact measured mass. The newer study is identified separately so the differing provenance remains visible. [1,2,3]", "scene_assumptions": "Humanoid / translucent four-eyed remnant king. An invented distant orbital enclosure aligned near a transit in the WD 1856+534 system. The planet-to-star size contrast is central: the giant can hide its compact white dwarf host. The picture chooses a fictional near-contact viewing geometry; it is not an observed epoch. Atmospheric edging, exposure and protection are invented. The narrow white light is exposed stellar disk, not a black-hole accretion ring. The terraces and enhanced starfield are invented components of the habitat view.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · WD 1856+534 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/WD%201856%2B534%20b" }, { "text": "Vanderburg et al. 2020 · discovery", "url": "https://www.nature.com/articles/s41586-020-2713-y" }, { "text": "MacDonald et al. 2026 · atmosphere and mass constraints", "url": "https://arxiv.org/abs/2607.01316" }, { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 10.4, "plus": 1.0, "minus": -1.0, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "pl_bmasse": { "v": 4386.054, "plus": null, "minus": null, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "pl_dens": { "v": 21.4, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 1.4079405, "plus": 1.1e-06, "minus": -1.1e-06, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "pl_orbsmax": { "v": 0.0204, "plus": 0.0012, "minus": -0.0012, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "pl_orbeccen": { "v": 0.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "pl_orbincl": { "v": 88.778, "plus": 0.059, "minus": -0.059, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "pl_insol": { "v": 0.181, "plus": 0.018, "minus": -0.018, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "pl_eqt": { "v": 163.0, "plus": 14.0, "minus": -18.0, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "st_teff": { "v": 4710.0, "plus": 60.0, "minus": -60.0, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "st_rad": { "v": 0.0131, "plus": 0.00054, "minus": -0.00054, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "st_mass": { "v": 0.518, "plus": 0.055, "minus": -0.055, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "st_lum": { "v": -4.12, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "st_age": { "v": 7.93, "plus": 2.07, "minus": -2.08, "limit": 0, "source": { "text": "Vanderburg et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.585..363V/abstract" } }, "st_met": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "sy_dist": { "v": 24.7359, "plus": 0.0435, "minus": -0.0433, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "WD 1856+534 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series05-05-wd-1856-534-b-f841d1.webp", "sha256": "b031cbe328200ffdda78807701226d576f78599d326b8fe383119eff003f68bf", "canonical_original": "World Images/warrior-series05-05-wd-1856-534-b.jpg", "limitations": "The planet-to-star size contrast is central: the giant can hide its compact white dwarf host. The picture chooses a fictional near-contact viewing geometry; it is not an observed epoch. Atmospheric edging, exposure and protection are invented. The narrow white light is exposed stellar disk, not a black-hole accretion ring. The terraces and enhanced starfield are invented components of the habitat view. All beings, civilizations and technology are fictional. No motives, moral alignment or character history is asserted.", "review": "Accepted: four-eyed translucent humanoid and a dark giant occulting a much smaller white dwarf. Rim haze, dense background stars and vast terraces are invented/exposure-enhanced. The visible white stellar segment is separate from the faint atmospheric limb." }, { "registry_id": "warrior-series05-06-kelt-9-b-f61cf3", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "KELT-9", "mapping_basis": "generation manifest", "filename": "warrior-series05-06-kelt-9-b.jpg", "title": "Heat That Unmakes Molecules", "planet": "KELT-9 b", "category": "Real exoplanet setting", "series": "warrior-05", "description": "descriptions/warrior-series05-06-kelt-9-b-f61cf3.html", "image": "images/warrior-series05-06-kelt-9-b.jpg", "scientific_anchor": "KELT-9 b is an ultra-hot giant on a roughly 1.48-day orbit. Intense irradiation makes its atmosphere a useful test of physics that is much less prominent in cooler planets. The distinction between the planet’s incoming stellar energy and its emitted heat is central to interpreting observations. [1,2] On the extremely hot dayside, molecular hydrogen can break apart into atoms. Dissociation absorbs energy. When those atoms move to cooler regions and recombine into molecules, energy is released again. Atmospheric circulation can therefore transport energy in chemical form as well as through changes in gas temperature. [2] Thermal observations taken over an orbit constrain how the system’s brightness varies with viewing phase. Interpreting that variation involves temperature structure, heat transport and the spectrum emitted by the atmosphere; it is not equivalent to directly photographing a local weather front. [2]", "scene_assumptions": "Nonhumanoid / glass-ribbed radial monarch. An invented heavily filtered orbital enclosure near KELT-9 b. The immense hot host and the planet’s luminous atmosphere illustrate extreme irradiation. White, violet and rose tones are filtered artistic colors, not a naked-eye prediction. Molecular dissociation cannot be seen as individual molecules at this scale. The enclosure and organism are entirely fictional. Stellar texture and prominence-like filaments are illustrative, not observed structures.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · KELT-9 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/KELT-9%20b" }, { "text": "NASA/JPL 2020 · hydrogen dissociation and heat transport", "url": "https://www.nasa.gov/centers-and-facilities/jpl/for-hottest-planet-a-major-meltdown-study-shows/" }, { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" }, { "text": "Gaudi et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017Natur.546..514G/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 21.70058664, "plus": 0.52682209, "minus": -0.52682209, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "pl_bmasse": { "v": 915.34581216, "plus": 111.23994245, "minus": -111.23994245, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "pl_dens": { "v": 0.491, "plus": 0.072, "minus": -0.066, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "pl_orbper": { "v": 1.4811235, "plus": 1.1e-06, "minus": -1.1e-06, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "pl_orbsmax": { "v": 0.03368, "plus": 0.00078, "minus": -0.00078, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "pl_orbeccen": { "v": 0.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "pl_orbincl": { "v": 86.79, "plus": 0.25, "minus": -0.25, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "pl_insol": { "v": 44900.0, "plus": 8100.0, "minus": -7200.0, "limit": 0, "source": { "text": "Gaudi et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017Natur.546..514G/abstract" } }, "pl_eqt": { "v": 3921.0, "plus": 182.0, "minus": -174.0, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "st_teff": { "v": 9270.0, "plus": 240.0, "minus": -180.0, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "st_rad": { "v": 2.418, "plus": 0.058, "minus": -0.058, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "st_mass": { "v": 2.32, "plus": 0.16, "minus": -0.16, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "st_lum": { "v": 1.58995, "plus": 0.04553, "minus": -0.03728, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "st_age": { "v": 0.45, "plus": 0.14, "minus": -0.13, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "st_met": { "v": 0.07, "plus": 0.2, "minus": -0.23, "limit": 0, "source": { "text": "Borsa et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...631A..34B/abstract" } }, "sy_dist": { "v": 204.455, "plus": 1.582, "minus": -1.558, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "KELT-9 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series05-06-kelt-9-b-f61cf3.webp", "sha256": "5e566cecf6aa88604bd17c36a6b4bafc71b8ee23c955580e5172b52a1e0d14cb", "canonical_original": "World Images/warrior-series05-06-kelt-9-b.jpg", "limitations": "The immense hot host and the planet’s luminous atmosphere illustrate extreme irradiation. White, violet and rose tones are filtered artistic colors, not a naked-eye prediction. Molecular dissociation cannot be seen as individual molecules at this scale. The enclosure and organism are entirely fictional. Stellar texture and prominence-like filaments are illustrative, not observed structures. All beings, civilizations and technology are fictional. No motives, moral alignment or character history is asserted.", "review": "Accepted: radial glass-ribbed nonhumanoid against an overwhelming stellar disk and heated violet planet. Stellar surface texture, prominence-like filaments, planetary atmospheric wisps and color are illustrative; molecular dissociation is not literally visible." }, { "registry_id": "warrior-series05-07-hd-80606-b-b13268", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "HD 80606", "mapping_basis": "generation manifest", "filename": "warrior-series05-07-hd-80606-b.jpg", "title": "The Violence of Closest Approach", "planet": "HD 80606 b", "category": "Real exoplanet setting", "series": "warrior-05", "description": "descriptions/warrior-series05-07-hd-80606-b-b13268.html", "image": "images/warrior-series05-07-hd-80606-b.jpg", "scientific_anchor": "HD 80606 b follows an extremely eccentric orbit, spending most of its long year far from its star before making a rapid close passage. Its orbital period is about 111 days. Orbital eccentricity changes the distance to the star and therefore the incident energy; the planet does not receive a nearly constant stellar input throughout its orbit. [1] Spitzer followed the system for about thirty hours around a close approach in November 2007, measuring infrared light at a wavelength of eight micrometres. Just before closest approach, the planet passed behind the star from Earth’s viewpoint. That eclipse helped separate the planetary contribution from the much brighter stellar signal. [2] The measurements showed rapid heating as the planet approached its host. Interpreting the changing brightness requires an atmospheric response model: heat can be absorbed, transported and emitted on different timescales. The observations did not resolve individual storm fronts. Here the sweep of warm color translates a time-dependent energy response into a single interpretive image. [2]", "scene_assumptions": "Humanoid / eyeless silver-shelled sovereign. An invented orbital shelter near HD 80606 b during a conceptual periastron passage. Spitzer measured a rapid change in infrared brightness near closest approach. The glowing atmospheric sweep visualizes that response rather than a mapped weather front or literal fire. The close stellar vista, colors, timing and thermal pattern are illustrative. The shelter and humanoid are fictional.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · HD 80606 b · saved 25 September 2026 snapshot", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/HD%2080606%20b" }, { "text": "NASA/JPL · HD 80606 b infrared light curve", "url": "https://science.nasa.gov/resource/exoplanet-hd-80606b-infrared-light-curve/" }, { "text": " Naef et al. 2001 ", "url": "https://ui.adsabs.harvard.edu/abs/2001A&A...375L..27N/abstract" }, { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" }, { "text": "Southworth 2011", "url": "https://ui.adsabs.harvard.edu/abs/2011MNRAS.417.2166S/abstract" }, { "text": " Wittenmyer et al. 2007 ", "url": "https://ui.adsabs.harvard.edu/abs/2007AJ....134.1276W/abstract" }, { "text": "Bonomo et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017A&A...602A.107B/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 11.56766808, "plus": 0.16813471, "minus": -0.16813471, "limit": 0, "source": { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" } }, "pl_bmasse": { "v": 1323.46926959, "plus": 1.49379351, "minus": -1.49379351, "limit": 0, "source": { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" } }, "pl_dens": { "v": 5.08, "plus": 0.32, "minus": -0.32, "limit": 0, "source": { "text": "Southworth 2011", "url": "https://ui.adsabs.harvard.edu/abs/2011MNRAS.417.2166S/abstract" } }, "pl_orbper": { "v": 111.436765, "plus": 7.4e-05, "minus": -7.4e-05, "limit": 0, "source": { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" } }, "pl_orbsmax": { "v": 0.4603, "plus": 0.0021, "minus": -0.0021, "limit": 0, "source": { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" } }, "pl_orbeccen": { "v": 0.93183, "plus": 0.00014, "minus": -0.00014, "limit": 0, "source": { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" } }, "pl_orbincl": { "v": 89.24, "plus": 0.01, "minus": -0.01, "limit": 0, "source": { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" } }, "pl_insol": { "v": 4.6941, "plus": 0.1147, "minus": -0.1147, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 405.0, "plus": 7.0, "minus": -7.0, "limit": 0, "source": { "text": "Southworth 2011", "url": "https://ui.adsabs.harvard.edu/abs/2011MNRAS.417.2166S/abstract" } }, "st_teff": { "v": 5565.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" } }, "st_rad": { "v": 1.05, "plus": 0.01, "minus": -0.01, "limit": 0, "source": { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" } }, "st_mass": { "v": 1.05, "plus": null, "minus": null, "limit": 0, "source": { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" } }, "st_lum": { "v": -0.00237, "plus": 0.00874, "minus": -0.01095, "limit": 0, "source": { "text": " Wittenmyer et al. 2007 ", "url": "https://ui.adsabs.harvard.edu/abs/2007AJ....134.1276W/abstract" } }, "st_age": { "v": 5.9, "plus": 1.6, "minus": -2.0, "limit": 0, "source": { "text": "Bonomo et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017A&A...602A.107B/abstract" } }, "st_met": { "v": 0.35, "plus": null, "minus": null, "limit": 0, "source": { "text": "Pearson et al. 2022", "url": "https://ui.adsabs.harvard.edu/abs/2022AJ....164..178P/abstract" } }, "sy_dist": { "v": 66.4711, "plus": 0.1612, "minus": -0.1604, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "HD 80606 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series05-07-hd-80606-b-b13268.webp", "sha256": "12a51c513775c7bbcbe97fd1739f37dab2520ef1577279f38149b7f548994841", "canonical_original": "World Images/warrior-series05-07-hd-80606-b.jpg", "limitations": "Spitzer measured a rapid change in infrared brightness near closest approach. The glowing atmospheric sweep visualizes that response rather than a mapped weather front or literal fire. The close stellar vista, colors, timing and thermal pattern are illustrative. The shelter and humanoid are fictional. All beings, civilizations and technology are fictional. No motives, moral alignment or character history is asserted.", "review": "Accepted: eyeless humanoid beside a curved atmospheric horizon and strong heating contrast. The atmospheric sweep is an imagined infrared-to-visible interpretation; individual cloud towers and vortices are not mapped observations." }, { "registry_id": "warrior-series05-08-hr-8799-e-09fe07", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "HR 8799", "mapping_basis": "generation manifest", "filename": "warrior-series05-08-hr-8799-e.jpg", "title": "A Young World Still Shining", "planet": "HR 8799 e", "category": "Real exoplanet setting", "series": "warrior-05", "description": "descriptions/warrior-series05-08-hr-8799-e-09fe07.html", "image": "images/warrior-series05-08-hr-8799-e.jpg", "scientific_anchor": "HR 8799 e is one of the directly imaged giant planets around the young star HR 8799. Unlike a transit measurement, direct imaging separates planetary light from the much brighter host. A young giant can be bright in the infrared because it is still releasing internal heat. [1,2] The GRAVITY instrument combined light from the Very Large Telescope Interferometer to obtain precise position measurements and a K-band spectrum. Atmospheric modeling indicated substantial carbon monoxide and cloud opacity associated with iron and silicate particles. The interpretation connects observed light to temperature, composition and vertical mixing. [2] Direct detection does not mean a detailed photograph of the planetary disk. The planet’s radius, gravity and mass depend on model interpretation; the saved catalog mass estimate has a particularly broad uncertainty. The observations constrain a distant luminous atmosphere, not mountains or moon surfaces. [1,2]", "scene_assumptions": "Nonhumanoid / crescent-crowned umbral being. An invented moon of HR 8799 e, rendered as an interpretive infrared-to-visible scene. The planet’s self-luminosity is translated from infrared into visible rose and wine tones. The patchy atmospheric texture is imagined and deliberately differs from Jupiter’s familiar bands. This is not a calibrated human-eye sky. The satellite, ice, organism and its survival are fictional.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · HR 8799 e · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/HR%208799%20e" }, { "text": "GRAVITY Collaboration 2019 · Interferometric detection and K-band spectroscopy of HR 8799 e", "url": "https://arxiv.org/abs/1903.11903" }, { "text": " Marois et al. 2010 ", "url": "https://ui.adsabs.harvard.edu/abs/2010Natur.468.1080M/abstract" }, { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" }, { "text": "Zurlo et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016A&A...587A..57Z/abstract" }, { "text": "Konopacky et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016AJ....152...28K/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 13.11453, "plus": 1.45717, "minus": -1.23299, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "pl_bmasse": { "v": 3178.3, "plus": 2224.81, "minus": -1271.32, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "pl_dens": { "v": 7.74, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 20815.6, "plus": 1128.62, "minus": -1128.62, "limit": 0, "source": { "text": "Zurlo et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016A&A...587A..57Z/abstract" } }, "pl_orbsmax": { "v": 16.4, "plus": 2.1, "minus": -1.1, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "pl_orbeccen": { "v": 0.15, "plus": 0.08, "minus": -0.08, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "pl_orbincl": { "v": 25.0, "plus": 8.0, "minus": -8.0, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "pl_insol": { "v": 0.0201, "plus": 0.004, "minus": -0.004, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 1150.0, "plus": 50.0, "minus": -50.0, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "st_teff": { "v": 7400.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "st_rad": { "v": 1.49338, "plus": 0.049341, "minus": -0.050935, "limit": 0, "source": { "text": "Konopacky et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016AJ....152...28K/abstract" } }, "st_mass": { "v": 1.51, "plus": 0.038, "minus": -0.024, "limit": 0, "source": { "text": "Zurlo et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016A&A...587A..57Z/abstract" } }, "st_lum": { "v": 0.73347, "plus": 0.01645, "minus": -0.01535, "limit": 0, "source": { "text": "Konopacky et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016AJ....152...28K/abstract" } }, "st_age": { "v": 0.03, "plus": null, "minus": null, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "st_met": { "v": -0.5, "plus": null, "minus": null, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "sy_dist": { "v": 41.2441, "plus": 0.1515, "minus": -0.1505, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "HR 8799 e", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series05-08-hr-8799-e-09fe07.webp", "sha256": "a8edb90dffc0fbd83582a377cf3684dff89165cf7aedee878b6de42594a1b6ea", "canonical_original": "World Images/warrior-series05-08-hr-8799-e.jpg", "limitations": "The planet’s self-luminosity is translated from infrared into visible rose and wine tones. The patchy atmospheric texture is imagined and deliberately differs from Jupiter’s familiar bands. This is not a calibrated human-eye sky. The satellite, ice, organism and its survival are fictional. All beings, civilizations and technology are fictional. No motives, moral alignment or character history is asserted.", "review": "Accepted: crescent-backed multi-eyed nonhumanoid against a mottled internally luminous planet. The texture represents a young atmosphere in translated infrared colors, not rocky crust or literal flames. Ice moon and biological survival are fiction." }, { "registry_id": "warrior-series05-09-pds-70-c-3f08fa", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "PDS 70", "mapping_basis": "generation manifest", "filename": "warrior-series05-09-pds-70-c.jpg", "title": "The Disk Where Moons May Begin", "planet": "PDS 70 c", "category": "Real exoplanet setting", "series": "warrior-05", "description": "descriptions/warrior-series05-09-pds-70-c-3f08fa.html", "image": "images/warrior-series05-09-pds-70-c.jpg", "scientific_anchor": "PDS 70 c is a young giant associated with a disk of material around its star. The saved catalog gives an orbital semimajor axis of 34.3 (+2.2/−1.8) astronomical units, while its period field is blank. The catalog’s radius and mass estimates have substantial uncertainties and depend on the interpretation of a young planet’s light. A missing period is not a zero-day orbit. [1] ALMA observations at a wavelength of 855 micrometres identified compact dust emission at the position of PDS 70 c, separated from the larger circumstellar disk. Benisty and colleagues interpreted that source as a circumplanetary disk. Hydrogen-line detections and infrared observations support an actively accreting planet. Material in such a disk provides a possible setting for satellite formation, without establishing that moons have already formed. [2] A later study recovered compact emission near the planet in observations spanning 2019–2023. Its measured location was consistent with the planet’s expected motion. Dust-mass estimates depend on grain properties and thermal assumptions; millimetre emission is not a visible-light view of a glowing ring. The painting uses those distinctions to show a disk in formation rather than a mature Saturn-like ring system. [3]", "scene_assumptions": "Nonhumanoid / suspended ivory sensory corona. An invented protected observatory above the disk plane near PDS 70 c. ALMA detects compact dust emission associated with PDS 70 c; infrared and hydrogen-line observations support an accreting protoplanet. The dust disk’s visible color, spiral details and nearby observer are interpretive. No moon is established by the scene. The planet is a warm object inside a disk, not a black hole. The relative sizes of planet and disk are compressed for legibility.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · PDS 70 c · saved 25 September 2026 snapshot", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/PDS%2070%20c" }, { "text": "Benisty et al. 2021 · A Circumplanetary Disk Around PDS 70 c", "url": "https://arxiv.org/abs/2108.07123" }, { "text": "Fasano et al. 2025 · Inner disc and circumplanetary material in the PDS 70 system", "url": "https://arxiv.org/abs/2506.11709" }, { "text": "Haffert et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019NatAs...3..749H/abstract" }, { "text": "Wang et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161..148W/abstract" }, { "text": "Keppler et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...617A..44K/abstract" }, { "text": "Swastik et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161..114S/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 22.19378179, "plus": 4.37150247, "minus": -3.47478402, "limit": 0, "source": { "text": "Wang et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161..148W/abstract" } }, "pl_bmasse": { "v": 2383.7130525, "plus": 1493.7935129, "minus": -1334.8793094, "limit": 0, "source": { "text": "Wang et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161..148W/abstract" } }, "pl_dens": { "v": 1.2, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_orbsmax": { "v": 34.3, "plus": 2.2, "minus": -1.8, "limit": 0, "source": { "text": "Wang et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161..148W/abstract" } }, "pl_orbeccen": { "v": 0.037, "plus": 0.041, "minus": -0.025, "limit": 0, "source": { "text": "Wang et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161..148W/abstract" } }, "pl_orbincl": { "v": 130.5, "plus": 2.5, "minus": -2.4, "limit": 0, "source": { "text": "Wang et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161..148W/abstract" } }, "pl_insol": { "v": 0.0003, "plus": 0.0001, "minus": -0.0001, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 1054.0, "plus": 60.0, "minus": -48.0, "limit": 0, "source": { "text": "Wang et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161..148W/abstract" } }, "st_teff": { "v": 4109.0, "plus": 36.0, "minus": -30.0, "limit": 0, "source": { "text": "Wang et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161..148W/abstract" } }, "st_rad": { "v": 1.26, "plus": 0.15, "minus": -0.15, "limit": 0, "source": { "text": "Keppler et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...617A..44K/abstract" } }, "st_mass": { "v": 0.982, "plus": 0.066, "minus": -0.066, "limit": 0, "source": { "text": "Wang et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161..148W/abstract" } }, "st_lum": { "v": -0.45593, "plus": 0.09938, "minus": -0.12909, "limit": 0, "source": { "text": "Keppler et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...617A..44K/abstract" } }, "st_age": { "v": 0.008, "plus": 0.001, "minus": -0.001, "limit": 0, "source": { "text": "Wang et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161..148W/abstract" } }, "st_met": { "v": -0.11, "plus": 0.01, "minus": -0.01, "limit": 0, "source": { "text": "Swastik et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161..114S/abstract" } }, "sy_dist": { "v": 113.064, "plus": 0.523, "minus": -0.519, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "PDS 70 c", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series05-09-pds-70-c-3f08fa.webp", "sha256": "26fbf766ed7ad76c240bf4c5831148ff123615595082eb41a93b033d67fa7d9d", "canonical_original": "World Images/warrior-series05-09-pds-70-c.jpg", "limitations": "ALMA detects compact dust emission associated with PDS 70 c; infrared and hydrogen-line observations support an accreting protoplanet. The dust disk’s visible color, spiral details and nearby observer are interpretive. No moon is established by the scene. The planet is a warm object inside a disk, not a black hole. The relative sizes of planet and disk are compressed for legibility. All beings, civilizations and technology are fictional. No motives, moral alignment or character history is asserted.", "review": "Accepted: nonhumanoid sensory corona beside a young planet in a coherent tilted dust disk, with near-side disk passing in front and far side behind. Planet-to-disk scale is compressed for legibility; colors, fine structure and foreground observatory are fictional." }, { "registry_id": "warrior-series05-10-beta-pic-b-2fc64b", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "bet Pic", "mapping_basis": "generation manifest", "filename": "warrior-series05-10-beta-pic-b.jpg", "title": "The Architecture of a Dusty System", "planet": "bet Pic b", "category": "Real exoplanet setting", "series": "warrior-05", "description": "descriptions/warrior-series05-10-beta-pic-b-2fc64b.html", "image": "images/warrior-series05-10-beta-pic-b.jpg", "scientific_anchor": "Beta Pictoris is surrounded by a dusty debris disk. The planet commonly written Beta Pictoris b is registered in the atlas under the exact catalog name bet Pic b. Its saved orbital semimajor axis is 10.07 ± 0.03 astronomical units, and the listed period is 8,682 (+55/−58) days. The illustration remains assigned to this specific planet and host. [1] Before the planet was securely imaged, a warp and an inclined component in the disk suggested that gravity was disturbing the dust. Observations with the Very Large Telescope subsequently followed the planetary companion. The planet’s position and mass could be compared with the properties required to influence the disk. Disk structure and direct imaging therefore provide complementary evidence. [2,3] Direct imaging separates a faint companion from the glare of its host. It does not reveal a close landscape or establish a satellite on which an observer could stand. The great band in this plate represents circumstellar dust seen from an invented local viewpoint. Its brightness and bend are deliberately emphasized; the foreground creature and moon are fictional. [2,3]", "scene_assumptions": "Humanoid / four-eyed obsidian crown. An imagined airless moon of beta Pic b within the Beta Pictoris system. The Beta Pictoris debris disk and directly imaged planet are real; the moon and observer are fiction. The great luminous sky band is an imagined local view of circumstellar dust, with brightness and warp enlarged for legibility. It is not a ring around the moon, a nebula or a calibrated sky. Other planets are not shown as giant disks.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · bet Pic b · saved 25 September 2026 snapshot", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/bet%20Pic%20b" }, { "text": "ESO · Beta Pictoris b and the structure of its debris disk", "url": "https://www.eso.org/public/videos/eso1024e/" }, { "text": "Lagrange et al. 2010 · A giant planet imaged in the disk of the young star Beta Pictoris", "url": "https://www.eso.org/public/archives/releases/sciencepapers/eso1024/eso1024.pdf" }, { "text": " Lagrange et al. 2009 ", "url": "https://ui.adsabs.harvard.edu/abs/2009A&A...493L..21L/abstract" }, { "text": "Currie et al. 2013", "url": "https://ui.adsabs.harvard.edu/abs/2013ApJ...776...15C/abstract" }, { "text": "Sutlieff et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1006L..10S/abstract" }, { "text": "Wang et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016AJ....152...97W/abstract" }, { "text": "Swastik et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161..114S/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 18.49485, "plus": 0.67254, "minus": -0.67254, "limit": 0, "source": { "text": "Currie et al. 2013", "url": "https://ui.adsabs.harvard.edu/abs/2013ApJ...776...15C/abstract" } }, "pl_bmasse": { "v": 2765.1071409, "plus": 826.3538582, "minus": -794.5710175, "limit": 0, "source": { "text": "Sutlieff et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1006L..10S/abstract" } }, "pl_dens": { "v": 2.4, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 8682.0, "plus": 55.0, "minus": -58.0, "limit": 0, "source": { "text": "Sutlieff et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1006L..10S/abstract" } }, "pl_orbsmax": { "v": 10.07, "plus": 0.03, "minus": -0.03, "limit": 0, "source": { "text": "Sutlieff et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1006L..10S/abstract" } }, "pl_orbeccen": { "v": 0.105, "plus": 0.004, "minus": -0.003, "limit": 0, "source": { "text": "Sutlieff et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1006L..10S/abstract" } }, "pl_orbincl": { "v": 88.993, "plus": 0.01, "minus": -0.011, "limit": 0, "source": { "text": "Sutlieff et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1006L..10S/abstract" } }, "pl_insol": { "v": 0.0885, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 1612.0, "plus": 38.0, "minus": -38.0, "limit": 0, "source": { "text": "Currie et al. 2013", "url": "https://ui.adsabs.harvard.edu/abs/2013ApJ...776...15C/abstract" } }, "st_teff": { "v": 8038.68, "plus": null, "minus": null, "limit": 0, "source": { "text": "Wang et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016AJ....152...97W/abstract" } }, "st_rad": { "v": 1.54416, "plus": null, "minus": null, "limit": 0, "source": { "text": "Wang et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016AJ....152...97W/abstract" } }, "st_mass": { "v": 1.789, "plus": 0.024, "minus": -0.027, "limit": 0, "source": { "text": "Sutlieff et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1006L..10S/abstract" } }, "st_lum": { "v": 0.95282, "plus": null, "minus": null, "limit": 0, "source": { "text": "Wang et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016AJ....152...97W/abstract" } }, "st_age": { "v": 0.023, "plus": 0.008, "minus": -0.008, "limit": 0, "source": { "text": "Sutlieff et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1006L..10S/abstract" } }, "st_met": { "v": -0.21, "plus": 0.03, "minus": -0.02, "limit": 0, "source": { "text": "Swastik et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161..114S/abstract" } }, "sy_dist": { "v": 19.7442, "plus": 0.132, "minus": -0.1303, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "bet Pic b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series05-10-beta-pic-b-2fc64b.webp", "sha256": "cf7efd3ea7a86dae8393ccc44049bcf5e867329f56aab6b0112ca607f9c29d83", "canonical_original": "World Images/warrior-series05-10-beta-pic-b.jpg", "limitations": "The Beta Pictoris debris disk and directly imaged planet are real; the moon and observer are fiction. The great luminous sky band is an imagined local view of circumstellar dust, with brightness and warp enlarged for legibility. It is not a ring around the moon, a nebula or a calibrated sky. Other planets are not shown as giant disks. All beings, civilizations and technology are fictional. No motives, moral alignment or character history is asserted.", "review": "Accepted after targeted edit: imposing four-eyed humanoid beneath a fine diffuse dust band and fainter inclined component; large individually resolved rocks removed from sky. Local sky shape, brightness, moon and being are invented." }, { "registry_id": "warrior-series05-11-kepler-16-b-copper-crown-89ffe8", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-16", "mapping_basis": "generation manifest", "filename": "warrior-series05-11-kepler-16-b-copper-crown.jpg", "title": "A Giant Beneath Two Suns", "planet": "Kepler-16 b", "category": "Real exoplanet setting", "series": "warrior-05", "description": "descriptions/warrior-series05-11-kepler-16-b-copper-crown-89ffe8.html", "image": "images/warrior-series05-11-kepler-16-b-copper-crown.jpg", "scientific_anchor": "Kepler-16 b travels around both stars in a binary system. The saved catalog lists an orbital period of 228.776 (+0.020/−0.037) days, a radius of 8.4493 ± 0.0291 Earth radii and a mass of 105.833 ± 5.085 Earth masses. These measurements anchor the immense imagined disk in the sky to a specific real planet. [1] Its discovery combined stellar eclipses, planetary transits and the gravitational dynamics of the system. The planet crosses stars that are themselves moving around a common center of mass; the changing transit timing and duration help reveal an orbit surrounding both. Two separate suns in this painting therefore represent the architecture of the real system, although their pictured positions are artistic. [2] A gas giant offers no solid ground for the illustrated observer. This scene places the foreground on a fictional satellite; NASA has also used an explicitly hypothetical moon to illustrate a local view of Kepler-16 b. Neither such artwork nor this plate establishes that a moon, atmosphere or inhabitable landscape has been detected. [3,4]", "scene_assumptions": "Nonhumanoid / copper-crowned basalt sentinel. An imagined atmospheric moon of Kepler-16 b, overlooking basalt cliffs and a mist-filled basin. Kepler-16 b and its binary host are real. The foreground is an invented moon, not the surface of the gas giant. The copper-crowned being, basalt terrain, mist and surface reflections are fictional. The giant’s indigo atmosphere, pearl cloud veils and vortices are artistic choices, not an observed cloud map. Apparent sizes, star positions, illumination and phase are composed for the picture rather than calculated for a dated viewpoint.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "NASA Exoplanet Archive · Kepler-16 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-16%20b" }, { "text": "Doyle et al. 2011 · Kepler-16: A Transiting Circumbinary Planet", "url": "https://arxiv.org/abs/1109.3432" }, { "text": "NASA · View from a hypothetical moon of Kepler-16 b", "url": "https://science.nasa.gov/exoplanets/vr-kepler-16b/" }, { "text": "NASA · Where your shadow always has company", "url": "https://science.nasa.gov/resource/where-your-shadow-always-has-company/" }, { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" }, { "text": "Q1-Q8 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 8.4493, "plus": 0.0291, "minus": -0.0291, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_bmasse": { "v": 105.833, "plus": 5.085, "minus": -5.085, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_dens": { "v": 0.964, "plus": 0.047, "minus": -0.046, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbper": { "v": 228.776, "plus": 0.02, "minus": -0.037, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbsmax": { "v": 0.7048, "plus": 0.0011, "minus": -0.0011, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbeccen": { "v": 0.0069, "plus": 0.001, "minus": -0.0015, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbincl": { "v": 90.0322, "plus": 0.0022, "minus": -0.0023, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_insol": { "v": 0.2517, "plus": 0.0012, "minus": -0.0012, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 205.9, "plus": 6.95, "minus": -6.95, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "st_teff": { "v": 4450.0, "plus": 150.0, "minus": -150.0, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "st_rad": { "v": 0.6489, "plus": 0.0013, "minus": -0.0013, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "st_mass": { "v": 0.6897, "plus": 0.0035, "minus": -0.0034, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "st_lum": { "v": -0.90301, "plus": 0.00147, "minus": -0.00148, "limit": 0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } }, "st_age": { "v": 3.8, "plus": 3.7, "minus": -3.7, "limit": 0, "source": { "text": "Q1-Q8 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" } }, "st_met": { "v": -0.3, "plus": 0.2, "minus": -0.2, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "sy_dist": { "v": 75.0852, "plus": 0.1541, "minus": -0.1536, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-16 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series05-11-kepler-16-b-copper-crown-89ffe8.webp", "sha256": "0c78fa2695da2f814e64043991407215d46ff4e730ac1374fc67f56a64ed1c07", "canonical_original": "World Images/warrior-series05-11-kepler-16-b-copper-crown.jpg", "limitations": "Kepler-16 b and its binary host are real. The foreground is an invented moon, not the surface of the gas giant. The copper-crowned being, basalt terrain, mist and surface reflections are fictional. The giant’s indigo atmosphere, pearl cloud veils and vortices are artistic choices, not an observed cloud map. Apparent sizes, star positions, illumination and phase are composed for the picture rather than calculated for a dated viewpoint. All beings, civilizations and technology are fictional. No motives, moral alignment or character history is asserted.", "review": "Accepted: restored the user's chosen original composition, retaining the copper filament crown, amber eye, imposing nonhumanoid stance, basalt cliffs, fog and double sunset. The former brown banded giant is replaced by dark indigo clouds and pale intricate vortices. The alien and landscape remain visually faithful to the original. Planetary cloud colors and detail are invented; this is not a measured atmospheric map or a calibrated illumination geometry." }, { "registry_id": "warrior-series06-01-kepler-16-b-d54a8b", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-16", "mapping_basis": "generation manifest", "filename": "warrior-series06-01-kepler-16-b.jpg", "title": "Hall of Two Suns", "planet": "Kepler-16 b", "category": "Real exoplanet setting", "series": "warrior-06", "description": "descriptions/warrior-series06-01-kepler-16-b-d54a8b.html", "image": "images/warrior-series06-01-kepler-16-b.jpg", "scientific_anchor": "Kepler-16 b travels around both members of an eclipsing binary. Transits of the stars and planet helped constrain the geometry of this system. The saved NASA composite catalog gives the planetary period as 228.776 days, with reported errors of +0.020/−0.037 days, and a radius of 8.4493 ± 0.0291 Earth radii. [1] Its real two-star setting motivates the paired low suns. The foreground must belong to an imagined moon or structure because the planet itself is a gas giant. No moon, sanctuary or resolved cloud map has been established by these observations. [2]", "scene_assumptions": "Humanoid with a ridged cranial fan and dark ceramic armor in meditation. A basalt sanctuary on an invented moon of Kepler-16 b. The basalt hall, solid moon, warrior, mural and atmosphere are invented. Kepler-16 b is a gas giant, not the rocky foreground. The two suns represent its real binary hosts; their separation, sizes, orbital phase and illumination are not calculated for a particular date. The indigo clouds are an artistic interpretation, not mapped weather.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · Kepler-16 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-16%20b" }, { "text": "[2] NASA/JPL · Kepler discovery confirms a planet orbiting two stars", "url": "https://www.jpl.nasa.gov/news/nasas-kepler-discovery-confirms-first-planet-orbiting-two-stars/" }, { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" }, { "text": "Q1-Q8 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 8.4493, "plus": 0.0291, "minus": -0.0291, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_bmasse": { "v": 105.833, "plus": 5.085, "minus": -5.085, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_dens": { "v": 0.964, "plus": 0.047, "minus": -0.046, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbper": { "v": 228.776, "plus": 0.02, "minus": -0.037, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbsmax": { "v": 0.7048, "plus": 0.0011, "minus": -0.0011, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbeccen": { "v": 0.0069, "plus": 0.001, "minus": -0.0015, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbincl": { "v": 90.0322, "plus": 0.0022, "minus": -0.0023, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_insol": { "v": 0.2517, "plus": 0.0012, "minus": -0.0012, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 205.9, "plus": 6.95, "minus": -6.95, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "st_teff": { "v": 4450.0, "plus": 150.0, "minus": -150.0, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "st_rad": { "v": 0.6489, "plus": 0.0013, "minus": -0.0013, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "st_mass": { "v": 0.6897, "plus": 0.0035, "minus": -0.0034, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "st_lum": { "v": -0.90301, "plus": 0.00147, "minus": -0.00148, "limit": 0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } }, "st_age": { "v": 3.8, "plus": 3.7, "minus": -3.7, "limit": 0, "source": { "text": "Q1-Q8 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" } }, "st_met": { "v": -0.3, "plus": 0.2, "minus": -0.2, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "sy_dist": { "v": 75.0852, "plus": 0.1541, "minus": -0.1536, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-16 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series06-01-kepler-16-b-d54a8b.webp", "sha256": "7f9e6aa39ecf0e28cd166c390ff0f49f72ff7522e4d74020f2903b4e2cb4f1b8", "canonical_original": "World Images/warrior-series06-01-kepler-16-b.jpg", "limitations": "The basalt hall, solid moon, warrior, mural and atmosphere are invented. Kepler-16 b is a gas giant, not the rocky foreground. The two suns represent its real binary hosts; their separation, sizes, orbital phase and illumination are not calculated for a particular date. The indigo clouds are an artistic interpretation, not mapped weather. All beings and cultures are fictional. Apparent sizes, phases and exposure are artistic, not a calibrated sky simulation. Cosmic connection is a visual theme, not an observed biological mechanism.", "review": "Explicitly approved by the user. Ground-connected basalt hall, visible outdoor ridge, two suns, large indigo giant, physical alien mural and legible seated warrior. Preserved unchanged. Stellar disks and planetary scale are enlarged for composition; no satellite geometry is dynamically validated." }, { "registry_id": "warrior-series06-02-hd-128311-c-ac48fe", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "HD 128311", "mapping_basis": "generation manifest", "filename": "warrior-series06-02-hd-128311-c.jpg", "title": "The Blue Silence", "planet": "HD 128311 c", "category": "Real exoplanet setting", "series": "warrior-06", "description": "descriptions/warrior-series06-02-hd-128311-c-ac48fe.html", "image": "images/warrior-series06-02-hd-128311-c.jpg", "scientific_anchor": "HD 128311 c was discovered through stellar radial-velocity measurements. A later study combined those measurements with Hubble astrometry to constrain orbital inclination and derive a true mass of 3.789 Jupiter masses, with reported errors of +0.924/−0.432. [2] The saved catalog gives an orbital period of 921.538 ± 1.150 days and records this mass as Mass rather than Msini. [1] These constraints motivate a giant-planet setting without providing a resolved atmospheric portrait. The blue color and pale cloud veils are invented. The foreground is explicitly an imagined moon; neither that moon nor its local environment is a reported discovery.", "scene_assumptions": "Pale four-armed humanoid with an elongated cranial crest in meditation. An open cliff sanctuary on an invented rocky moon of HD 128311 c. The rocky moon, atmosphere, blue cloud colors, cliff sanctuary, mosaic and warrior are fictional. The setting is on solid ground with an open view across terrain. The giant's mass is constrained through stellar motion; its cloud colors, weather and apparent size in this scene are not measured. No orbit or moon-stability calculation is claimed.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · HD 128311 c · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/HD%20128311%20c" }, { "text": "[2] McArthur et al. 2014 · Astrometry, radial velocity and photometry of HD 128311", "url": "https://digitalscholarship.tnstate.edu/coe-research/110/" }, { "text": " Vogt et al. 2005 ", "url": "https://ui.adsabs.harvard.edu/abs/2005ApJ...632..638V/abstract" }, { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" }, { "text": " Wittenmyer et al. 2009 ", "url": "https://ui.adsabs.harvard.edu/abs/2009ApJS..182...97W/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 13.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_bmasse": { "v": 1204.25787, "plus": 293.67492, "minus": -137.30256, "limit": 0, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "pl_dens": { "v": 3.01, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 921.538, "plus": 1.15, "minus": -1.15, "limit": 0, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "pl_orbsmax": { "v": 1.74, "plus": 0.01, "minus": -0.01, "limit": 0, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "pl_orbeccen": { "v": 0.159, "plus": 0.006, "minus": -0.006, "limit": 0, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "pl_orbincl": { "v": 55.95, "plus": 14.553, "minus": -14.553, "limit": 0, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "pl_insol": { "v": 0.1017, "plus": 0.0012, "minus": -0.0012, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 158.23, "plus": 2.55, "minus": -2.55, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "st_teff": { "v": 4965.0, "plus": 44.0, "minus": -44.0, "limit": 0, "source": { "text": " Wittenmyer et al. 2009 ", "url": "https://ui.adsabs.harvard.edu/abs/2009ApJS..182...97W/abstract" } }, "st_rad": { "v": 0.76, "plus": 0.02, "minus": -0.02, "limit": 0, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "st_mass": { "v": 0.828, "plus": 0.008, "minus": -0.012, "limit": 0, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "st_lum": { "v": -0.5116, "plus": 0.0007, "minus": -0.0007, "limit": 0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } }, "st_age": { "v": 0.96, "plus": null, "minus": null, "limit": 1, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "st_met": { "v": 0.08, "plus": 0.03, "minus": -0.03, "limit": 0, "source": { "text": " Wittenmyer et al. 2009 ", "url": "https://ui.adsabs.harvard.edu/abs/2009ApJS..182...97W/abstract" } }, "sy_dist": { "v": 16.3292, "plus": 0.0199, "minus": -0.0198, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "HD 128311 c", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series06-02-hd-128311-c-ac48fe.webp", "sha256": "a45fa1575bcf166a608721ecfe7710b6162ac298c0db79f12cdb1c3d3e8c0b0a", "canonical_original": "World Images/warrior-series06-02-hd-128311-c.jpg", "limitations": "The rocky moon, atmosphere, blue cloud colors, cliff sanctuary, mosaic and warrior are fictional. The setting is on solid ground with an open view across terrain. The giant's mass is constrained through stellar motion; its cloud colors, weather and apparent size in this scene are not measured. No orbit or moon-stability calculation is claimed. All beings and cultures are fictional. Apparent sizes, phases and exposure are artistic, not a calibrated sky simulation. Cosmic connection is a visual theme, not an observed biological mechanism.", "review": "Accepted wider revision: substantially smaller seated warrior in an open ground-connected cliff alcove. Expansive mountain terrain, physical mosaic and blue giant dominate. No window or orbital viewpoint. Stellar field, blue weather colors and angular scale are illustrative." }, { "registry_id": "warrior-series06-03-psr-b1620-26-b-c6f4cb", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "PSR B1620-26", "mapping_basis": "generation manifest", "filename": "warrior-series06-03-psr-b1620-26-b.jpg", "title": "The Cave of Ancient Stars", "planet": "PSR B1620-26 b", "category": "Real exoplanet setting", "series": "warrior-06", "description": "descriptions/warrior-series06-03-psr-b1620-26-b-c6f4cb.html", "image": "images/warrior-series06-03-psr-b1620-26-b.jpg", "scientific_anchor": "PSR B1620-26 b belongs to a system containing a pulsar and a white dwarf in the globular cluster M4. Pulsar timing revealed an additional gravitational influence. Observations of the white dwarf helped constrain the system and supported a planetary interpretation with a mass near 2.5 ± 1 Jupiter masses. [1,2] Its inferred long history motivates the rich cluster sky. The exact age and dynamical assembly are interpretations of stellar evolution and orbital evidence. The catalog radius is a calculated value, not a transit measurement; the companion table retains that distinction.", "scene_assumptions": "Six-limbed armored alien with an upright torso and folded sensory fins in meditation. An open painted cave on an invented rocky moon in the PSR B1620-26 system. The moon, cave, local conditions, artwork and being are invented. The ground extends outdoors through an open cave mouth. The dense star field evokes membership in M4 without reproducing a calculated sky. The pulsar and white dwarf are not rendered as giant suns or visible radio beams. Small fictional lamps supply the warm cave illumination; the organism's physiology is not a habitability claim.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · PSR B1620-26 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/PSR%20B1620-26%20b" }, { "text": "[2] NASA/Hubble · Planet in the pulsar–white dwarf system in M4", "url": "https://science.nasa.gov/missions/hubble/oldest-known-planet-identified/" }, { "text": " Sigurdsson et al. 2003 ", "url": "https://ui.adsabs.harvard.edu/abs/2003Sci...301..193S/abstract" }, { "text": " Arzoumanian et al. 1996 ", "url": "https://ui.adsabs.harvard.edu/abs/1996ASPC..105..525A/abstract" } ], "measurements": { "pl_rade": { "v": 13.3, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_bmasse": { "v": 794.575, "plus": 317.83, "minus": -317.83, "limit": 0, "source": { "text": " Sigurdsson et al. 2003 ", "url": "https://ui.adsabs.harvard.edu/abs/2003Sci...301..193S/abstract" } }, "pl_dens": { "v": 1.86, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_orbsmax": { "v": 23.0, "plus": null, "minus": null, "limit": 0, "source": { "text": " Sigurdsson et al. 2003 ", "url": "https://ui.adsabs.harvard.edu/abs/2003Sci...301..193S/abstract" } }, "pl_orbeccen": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_orbincl": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_insol": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_eqt": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_teff": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_rad": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_mass": { "v": 1.35, "plus": null, "minus": null, "limit": 0, "source": { "text": " Sigurdsson et al. 2003 ", "url": "https://ui.adsabs.harvard.edu/abs/2003Sci...301..193S/abstract" } }, "st_lum": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_age": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_met": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "sy_dist": { "v": null, "plus": null, "minus": null, "limit": null, "source": { "text": " Arzoumanian et al. 1996 ", "url": "https://ui.adsabs.harvard.edu/abs/1996ASPC..105..525A/abstract" } } }, "original_context": [], "setting_name": "PSR B1620-26 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series06-03-psr-b1620-26-b-c6f4cb.webp", "sha256": "edbdd0c1978b1facb497349258fb8458f80362ed135bc2fcd3e61002ca1ed3ed", "canonical_original": "World Images/warrior-series06-03-psr-b1620-26-b.jpg", "limitations": "The moon, cave, local conditions, artwork and being are invented. The ground extends outdoors through an open cave mouth. The dense star field evokes membership in M4 without reproducing a calculated sky. The pulsar and white dwarf are not rendered as giant suns or visible radio beams. Small fictional lamps supply the warm cave illumination; the organism's physiology is not a habitability claim. All beings and cultures are fictional. Apparent sizes, phases and exposure are artistic, not a calibrated sky simulation. Cosmic connection is a visual theme, not an observed biological mechanism.", "review": "Accepted wider revision: smaller many-limbed warrior under an open painted cave arch, continuous rocky ground and a clear distant ridge. Dense star field dominates; stars, grouping and brightness are not a predicted sky. The being has a partly humanoid torso, described candidly in the caption. No glass." }, { "registry_id": "warrior-series06-04-trappist-1-e-0e88fa", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "TRAPPIST-1", "mapping_basis": "generation manifest", "filename": "warrior-series06-04-trappist-1-e.jpg", "title": "The Red Horizon", "planet": "TRAPPIST-1 e", "category": "Real exoplanet setting", "series": "warrior-06", "description": "descriptions/warrior-series06-04-trappist-1-e-0e88fa.html", "image": "images/warrior-series06-04-trappist-1-e.jpg", "scientific_anchor": "TRAPPIST-1 e is one of seven approximately Earth-sized planets orbiting a small ultracool dwarf. The saved catalog gives a radius of 0.920 Earth radii, with +0.013/−0.012 uncertainty, and a mass of 0.692 ± 0.022 Earth masses. [1] These measurements support a predominantly rocky bulk composition without revealing surface geography. Atmospheric characterization remains difficult: stellar surface features can contaminate transmission spectra, and neither a blue ocean nor a breathable atmosphere follows from a planet's location in the habitable zone. [2] The courtyard is a speculative setting for this real compact planetary system.", "scene_assumptions": "Copper-skinned humanoid with a paired cranial ridge and layered armor in meditation. A speculative sheltered surface courtyard on TRAPPIST-1 e. The terrain, sky color, shelter, warrior, mural and local atmosphere are hypothetical. The dark sky and low host star illustrate a possible viewing arrangement rather than a measured climate or permanent terminator. Tiny additional lights evoke companion planets; no identities or conjunction date are assigned. Their apparent positions and brightnesses are not a sky prediction. The reflecting basin and possible reflective channels are invented; the image is not evidence for liquid water.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · TRAPPIST-1 e · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/TRAPPIST-1%20e" }, { "text": "[2] NASA/Webb · What Webb is revealing about the TRAPPIST-1 system", "url": "https://science.nasa.gov/mission/webb/science-overview/science-explainers/what-is-webb-revealing-about-the-trappist-1-system/" }, { "text": "Gillon et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017Natur.542..456G/abstract" }, { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" }, { "text": "Grimm et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..68G/abstract" }, { "text": "Ducrot et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020A&A...640A.112D/abstract" }, { "text": "Piaulet-Ghorayeb et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025ApJ...989..181P/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } ], "measurements": { "pl_rade": { "v": 0.92, "plus": 0.013, "minus": -0.012, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_bmasse": { "v": 0.692, "plus": 0.022, "minus": -0.022, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_dens": { "v": 4.901605, "plus": 0.165408, "minus": -0.181949, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_orbper": { "v": 6.101013, "plus": 3.5e-05, "minus": -3.5e-05, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_orbsmax": { "v": 0.02925, "plus": 0.0025, "minus": -0.0025, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_orbeccen": { "v": 0.0051, "plus": 0.00058, "minus": -0.00058, "limit": 0, "source": { "text": "Grimm et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..68G/abstract" } }, "pl_orbincl": { "v": 89.793, "plus": 0.048, "minus": -0.048, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_insol": { "v": 0.646, "plus": 0.025, "minus": -0.025, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_eqt": { "v": 249.7, "plus": 2.4, "minus": -2.4, "limit": 0, "source": { "text": "Ducrot et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020A&A...640A.112D/abstract" } }, "st_teff": { "v": 2566.0, "plus": 26.0, "minus": -26.0, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "st_rad": { "v": 0.1192, "plus": 0.0013, "minus": -0.0013, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "st_mass": { "v": 0.0898, "plus": 0.0023, "minus": -0.0023, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "st_lum": { "v": -3.25727, "plus": 0.01467, "minus": -0.01518, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "st_age": { "v": 7.6, "plus": 2.2, "minus": -2.2, "limit": 0, "source": { "text": "Piaulet-Ghorayeb et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025ApJ...989..181P/abstract" } }, "st_met": { "v": 0.052, "plus": 0.073, "minus": -0.073, "limit": 0, "source": { "text": "Piaulet-Ghorayeb et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025ApJ...989..181P/abstract" } }, "sy_dist": { "v": 12.42988881, "plus": 0.01870661, "minus": -0.01870661, "limit": 0.0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } } }, "original_context": [], "setting_name": "TRAPPIST-1 e", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series06-04-trappist-1-e-0e88fa.webp", "sha256": "c73747b8fdcf524bb7c6c08051dedfb108363aef430e6685dbeb7ee3de19b0fd", "canonical_original": "World Images/warrior-series06-04-trappist-1-e.jpg", "limitations": "The terrain, sky color, shelter, warrior, mural and local atmosphere are hypothetical. The dark sky and low host star illustrate a possible viewing arrangement rather than a measured climate or permanent terminator. Tiny additional lights evoke companion planets; no identities or conjunction date are assigned. Their apparent positions and brightnesses are not a sky prediction. The reflecting basin and possible reflective channels are invented; the image is not evidence for liquid water. All beings and cultures are fictional. Apparent sizes, phases and exposure are artistic, not a calibrated sky simulation. Cosmic connection is a visual theme, not an observed biological mechanism.", "review": "Accepted wider revision: smaller meditating warrior alongside a physical alien orbital mural, open volcanic horizon and single low host star. Broad floor and reflecting basin establish a continuous ground-level sanctuary. The reflective liquid, weather and sky-point positions are imagined, not measured. No glazing." }, { "registry_id": "warrior-series06-05-bet-pic-b-484d6f", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "bet Pic", "mapping_basis": "generation manifest", "filename": "warrior-series06-05-bet-pic-b.jpg", "title": "The Dust Courtyard", "planet": "bet Pic b", "category": "Real exoplanet setting", "series": "warrior-06", "description": "descriptions/warrior-series06-05-bet-pic-b-484d6f.html", "image": "images/warrior-series06-05-bet-pic-b.jpg", "scientific_anchor": "Beta Pictoris b is a directly imaged young giant in a system with an extensively studied debris disk. Direct imaging separates planetary light from stellar glare; it does not provide the finely resolved weather map shown in an imagined close view. Webb observations reveal structure in the circumstellar debris, including a secondary disk and a curved feature interpreted through dust-production models. [2] Dust brightness depends on wavelength, particle properties and geometry. The wallpaper uses a broad luminous plane to make that architecture legible, while preserving the distinction between a disk around a star and rings around a planet. Catalog quantities and their individual sources accompany the image. [1]", "scene_assumptions": "Tall silver-blue humanoid with a narrow split cranial crest in meditation. An open mountain courtyard on an invented moon of beta Pictoris b. The moon, terrain, atmosphere, open courtyard, warrior and relief are fictional. The broad dust structure is circumstellar, not a ring around the parent planet. Its visible brightness and viewing angle are enhanced for the composition. The giant's muted thermal coloring is an artistic translation rather than a calibrated eye-view. Neither moon stability nor a particular orbital phase is modeled.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · bet Pic b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/bet%20Pic%20b" }, { "text": "[2] NASA/Webb · Dust structure in the beta Pictoris system", "url": "https://science.nasa.gov/missions/webb/nasas-webb-discovers-dusty-cats-tail-in-beta-pictoris-system/" }, { "text": " Lagrange et al. 2009 ", "url": "https://ui.adsabs.harvard.edu/abs/2009A&A...493L..21L/abstract" }, { "text": "Currie et al. 2013", "url": "https://ui.adsabs.harvard.edu/abs/2013ApJ...776...15C/abstract" }, { "text": "Sutlieff et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1006L..10S/abstract" }, { "text": "Wang et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016AJ....152...97W/abstract" }, { "text": "Swastik et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161..114S/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 18.49485, "plus": 0.67254, "minus": -0.67254, "limit": 0, "source": { "text": "Currie et al. 2013", "url": "https://ui.adsabs.harvard.edu/abs/2013ApJ...776...15C/abstract" } }, "pl_bmasse": { "v": 2765.1071409, "plus": 826.3538582, "minus": -794.5710175, "limit": 0, "source": { "text": "Sutlieff et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1006L..10S/abstract" } }, "pl_dens": { "v": 2.4, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 8682.0, "plus": 55.0, "minus": -58.0, "limit": 0, "source": { "text": "Sutlieff et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1006L..10S/abstract" } }, "pl_orbsmax": { "v": 10.07, "plus": 0.03, "minus": -0.03, "limit": 0, "source": { "text": "Sutlieff et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1006L..10S/abstract" } }, "pl_orbeccen": { "v": 0.105, "plus": 0.004, "minus": -0.003, "limit": 0, "source": { "text": "Sutlieff et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1006L..10S/abstract" } }, "pl_orbincl": { "v": 88.993, "plus": 0.01, "minus": -0.011, "limit": 0, "source": { "text": "Sutlieff et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1006L..10S/abstract" } }, "pl_insol": { "v": 0.0885, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 1612.0, "plus": 38.0, "minus": -38.0, "limit": 0, "source": { "text": "Currie et al. 2013", "url": "https://ui.adsabs.harvard.edu/abs/2013ApJ...776...15C/abstract" } }, "st_teff": { "v": 8038.68, "plus": null, "minus": null, "limit": 0, "source": { "text": "Wang et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016AJ....152...97W/abstract" } }, "st_rad": { "v": 1.54416, "plus": null, "minus": null, "limit": 0, "source": { "text": "Wang et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016AJ....152...97W/abstract" } }, "st_mass": { "v": 1.789, "plus": 0.024, "minus": -0.027, "limit": 0, "source": { "text": "Sutlieff et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1006L..10S/abstract" } }, "st_lum": { "v": 0.95282, "plus": null, "minus": null, "limit": 0, "source": { "text": "Wang et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016AJ....152...97W/abstract" } }, "st_age": { "v": 0.023, "plus": 0.008, "minus": -0.008, "limit": 0, "source": { "text": "Sutlieff et al. 2026", "url": "https://ui.adsabs.harvard.edu/abs/2026ApJ..1006L..10S/abstract" } }, "st_met": { "v": -0.21, "plus": 0.03, "minus": -0.02, "limit": 0, "source": { "text": "Swastik et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161..114S/abstract" } }, "sy_dist": { "v": 19.7442, "plus": 0.132, "minus": -0.1303, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "bet Pic b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series06-05-bet-pic-b-484d6f.webp", "sha256": "54028357532b2f1fe1b98145a62332c61c674be9b2d58d39498155338340ca0b", "canonical_original": "World Images/warrior-series06-05-bet-pic-b.jpg", "limitations": "The moon, terrain, atmosphere, open courtyard, warrior and relief are fictional. The broad dust structure is circumstellar, not a ring around the parent planet. Its visible brightness and viewing angle are enhanced for the composition. The giant's muted thermal coloring is an artistic translation rather than a calibrated eye-view. Neither moon stability nor a particular orbital phase is modeled. All beings and cultures are fictional. Apparent sizes, phases and exposure are artistic, not a calibrated sky simulation. Cosmic connection is a visual theme, not an observed biological mechanism.", "review": "Accepted wider revision: smaller warrior in a ground-connected open courtyard; broad stone floor, distant valley, physical relief and astronomical sky dominate. Bright textured dust band is an enhanced artistic interpretation of circumstellar debris, not a ring or calibrated naked-eye view. Planetary weather and waterlike channels are invented." }, { "registry_id": "warrior-series06-06-hr-8799-e-4487ab", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "HR 8799", "mapping_basis": "generation manifest", "filename": "warrior-series06-06-hr-8799-e.jpg", "title": "The Ice Sanctuary", "planet": "HR 8799 e", "category": "Real exoplanet setting", "series": "warrior-06", "description": "descriptions/warrior-series06-06-hr-8799-e-4487ab.html", "image": "images/warrior-series06-06-hr-8799-e.jpg", "scientific_anchor": "HR 8799 e is a directly imaged young giant. Interferometry with the GRAVITY instrument has also provided positional information and a K-band spectrum, which atmospheric models use to investigate molecular absorption and cloud opacity. [2] Infrared brightness can be powered by a young planet's remaining internal heat. It does not imply a visible lava surface. Mass, radius and atmospheric properties depend on model interpretation; the accompanying catalog retains their source-specific uncertainties. [1] The image places an observer on an explicitly invented icy moon and gives the giant a restrained ember coloration to interpret its thermal emission.", "scene_assumptions": "Broad pearl-grey humanoid with cranial fins and layered dark armor in meditation. A ground-level ice cave on an invented moon of HR 8799 e. The icy moon, atmosphere, open cave, warrior and mineral artwork are fictional. HR 8799 e is a young gas giant, not the solid ice beneath the observer. The planet's ember and violet palette translates its thermal character into visible art, rather than predicting its true naked-eye color. Clouds, illumination, angular scale and satellite stability are not modeled.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · HR 8799 e · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/HR%208799%20e" }, { "text": "[2] GRAVITY Collaboration 2019 · Interferometric detection and spectroscopy of HR 8799 e", "url": "https://arxiv.org/abs/1903.11903" }, { "text": " Marois et al. 2010 ", "url": "https://ui.adsabs.harvard.edu/abs/2010Natur.468.1080M/abstract" }, { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" }, { "text": "Zurlo et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016A&A...587A..57Z/abstract" }, { "text": "Konopacky et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016AJ....152...28K/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 13.11453, "plus": 1.45717, "minus": -1.23299, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "pl_bmasse": { "v": 3178.3, "plus": 2224.81, "minus": -1271.32, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "pl_dens": { "v": 7.74, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 20815.6, "plus": 1128.62, "minus": -1128.62, "limit": 0, "source": { "text": "Zurlo et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016A&A...587A..57Z/abstract" } }, "pl_orbsmax": { "v": 16.4, "plus": 2.1, "minus": -1.1, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "pl_orbeccen": { "v": 0.15, "plus": 0.08, "minus": -0.08, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "pl_orbincl": { "v": 25.0, "plus": 8.0, "minus": -8.0, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "pl_insol": { "v": 0.0201, "plus": 0.004, "minus": -0.004, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 1150.0, "plus": 50.0, "minus": -50.0, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "st_teff": { "v": 7400.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "st_rad": { "v": 1.49338, "plus": 0.049341, "minus": -0.050935, "limit": 0, "source": { "text": "Konopacky et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016AJ....152...28K/abstract" } }, "st_mass": { "v": 1.51, "plus": 0.038, "minus": -0.024, "limit": 0, "source": { "text": "Zurlo et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016A&A...587A..57Z/abstract" } }, "st_lum": { "v": 0.73347, "plus": 0.01645, "minus": -0.01535, "limit": 0, "source": { "text": "Konopacky et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016AJ....152...28K/abstract" } }, "st_age": { "v": 0.03, "plus": null, "minus": null, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "st_met": { "v": -0.5, "plus": null, "minus": null, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "sy_dist": { "v": 41.2441, "plus": 0.1515, "minus": -0.1505, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "HR 8799 e", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series06-06-hr-8799-e-4487ab.webp", "sha256": "5a32aee074961cee6184eb68254d4997851953ef1f402e56a57b78e0f77aa286", "canonical_original": "World Images/warrior-series06-06-hr-8799-e.jpg", "limitations": "The icy moon, atmosphere, open cave, warrior and mineral artwork are fictional. HR 8799 e is a young gas giant, not the solid ice beneath the observer. The planet's ember and violet palette translates its thermal character into visible art, rather than predicting its true naked-eye color. Clouds, illumination, angular scale and satellite stability are not modeled. All beings and cultures are fictional. Apparent sizes, phases and exposure are artistic, not a calibrated sky simulation. Cosmic connection is a visual theme, not an observed biological mechanism.", "review": "Accepted wider revision: smaller seated warrior within an open ice cave; a continuous frozen valley, distant mountain horizon, physical painted rock and giant planetary sky dominate. The bright atmospheric strands are artistic thermal-cloud texture, not observed lightning or a lava surface. Fictional moon and local conditions. No glazing." }, { "registry_id": "warrior-series06-07-kepler-16-b-open-field-d6d053", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-16", "mapping_basis": "generation manifest", "filename": "warrior-series06-07-kepler-16-b-open-field.jpg", "title": "Beneath the Whole Sky", "planet": "Kepler-16 b", "category": "Real exoplanet setting", "series": "warrior-06", "description": "descriptions/warrior-series06-07-kepler-16-b-open-field-d6d053.html", "image": "images/warrior-series06-07-kepler-16-b-open-field.jpg", "scientific_anchor": "Kepler-16 b orbits both stars in its host binary. The saved NASA composite catalog gives its orbital period as 228.776 days, with +0.020/−0.037 days uncertainty, and its radius as 8.4493 ± 0.0291 Earth radii. [1] This makes a two-source sky an appropriate astronomical theme, but the planet is a gas giant. The field in this image therefore belongs to an explicitly fictional moon. The wide rear viewpoint places the imaginary observer within a terrestrial-scale landscape while the binary stars and parent planet establish the real system used as the setting. [2]", "scene_assumptions": "A distant armored alien humanoid seen from behind in meditation. An open field on an invented moon of Kepler-16 b, seen from far behind the seated warrior. The moon, atmosphere, field vegetation, engraved stones and warrior are invented. Kepler-16 b is the parent gas giant in the sky, not the solid ground. Its real binary hosts motivate the paired small suns; their positions, sizes, the planet's phase and the sky exposure are illustrative rather than a computed observing epoch. No plant life, moon or surface environment has been detected.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · Kepler-16 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-16%20b" }, { "text": "[2] NASA/JPL · Kepler discovery confirms a planet orbiting two stars", "url": "https://www.jpl.nasa.gov/news/nasas-kepler-discovery-confirms-first-planet-orbiting-two-stars/" }, { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" }, { "text": "Q1-Q8 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 8.4493, "plus": 0.0291, "minus": -0.0291, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_bmasse": { "v": 105.833, "plus": 5.085, "minus": -5.085, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_dens": { "v": 0.964, "plus": 0.047, "minus": -0.046, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbper": { "v": 228.776, "plus": 0.02, "minus": -0.037, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbsmax": { "v": 0.7048, "plus": 0.0011, "minus": -0.0011, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbeccen": { "v": 0.0069, "plus": 0.001, "minus": -0.0015, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbincl": { "v": 90.0322, "plus": 0.0022, "minus": -0.0023, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_insol": { "v": 0.2517, "plus": 0.0012, "minus": -0.0012, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 205.9, "plus": 6.95, "minus": -6.95, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "st_teff": { "v": 4450.0, "plus": 150.0, "minus": -150.0, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "st_rad": { "v": 0.6489, "plus": 0.0013, "minus": -0.0013, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "st_mass": { "v": 0.6897, "plus": 0.0035, "minus": -0.0034, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "st_lum": { "v": -0.90301, "plus": 0.00147, "minus": -0.00148, "limit": 0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } }, "st_age": { "v": 3.8, "plus": 3.7, "minus": -3.7, "limit": 0, "source": { "text": "Q1-Q8 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" } }, "st_met": { "v": -0.3, "plus": 0.2, "minus": -0.2, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "sy_dist": { "v": 75.0852, "plus": 0.1541, "minus": -0.1536, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-16 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series06-07-kepler-16-b-open-field-d6d053.webp", "sha256": "6f22ea3394c77670746b063ca79fd731843876e48e9a1064578b346c9b6d2a61", "canonical_original": "World Images/warrior-series06-07-kepler-16-b-open-field.jpg", "limitations": "The moon, atmosphere, field vegetation, engraved stones and warrior are invented. Kepler-16 b is the parent gas giant in the sky, not the solid ground. Its real binary hosts motivate the paired small suns; their positions, sizes, the planet's phase and the sky exposure are illustrative rather than a computed observing epoch. No plant life, moon or surface environment has been detected. All beings and cultures are fictional. Apparent sizes, phases and exposure are artistic, not a calibrated sky simulation. Cosmic connection is a visual theme, not an observed biological mechanism.", "review": "Accepted requested open-field composition: one small seated warrior seen entirely from behind, facing the immense sky. Open grasslike field and land horizon, peripheral engraved stones, two low suns and indigo parent giant. No enclosing architecture or window. The figure is approximately 14 percent of image height, a distant wide view; celestial dimensions and local environment are fictional and uncalibrated." }, { "registry_id": "warrior-series07-01-kepler-16-b-silver-field-d46624", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-16", "mapping_basis": "generation manifest", "filename": "warrior-series07-01-kepler-16-b-silver-field.jpg", "title": "The Silver Field", "planet": "Kepler-16 b", "category": "Real exoplanet setting", "series": "warrior-07", "description": "descriptions/warrior-series07-01-kepler-16-b-silver-field-d46624.html", "image": "images/warrior-series07-01-kepler-16-b-silver-field.jpg", "scientific_anchor": "Kepler-16 b is a gas giant orbiting both stars of an eclipsing binary. Transit timing and the system's combined orbital geometry constrain its size and motion. The saved catalog records a period of 228.776 days, with +0.020/−0.037 day errors. [1,2] A foreground landscape cannot be the ordinary surface of this giant. The image therefore explicitly imagines a separate solid moon. No vegetation, moon or atmospheric portrait is established by the observations.", "scene_assumptions": "Small dark-armored humanoid with a narrow fin crest, seen entirely from behind in meditation. An open silver grassland on a fictional moon of Kepler-16 b. The moon, grasslike vegetation, atmospheric haze, engraved stones and warrior are fictional. The parent giant is in the sky, not beneath the terrain. Its cloud structures, color, phase and angular diameter are illustrative. Both host stars are outside the frame; the sky does not reconstruct an observing date.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · Kepler-16 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-16%20b" }, { "text": "[2] NASA/JPL · A planet orbiting two stars", "url": "https://www.jpl.nasa.gov/news/nasas-kepler-discovery-confirms-first-planet-orbiting-two-stars/" }, { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" }, { "text": "Q1-Q8 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 8.4493, "plus": 0.0291, "minus": -0.0291, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_bmasse": { "v": 105.833, "plus": 5.085, "minus": -5.085, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_dens": { "v": 0.964, "plus": 0.047, "minus": -0.046, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbper": { "v": 228.776, "plus": 0.02, "minus": -0.037, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbsmax": { "v": 0.7048, "plus": 0.0011, "minus": -0.0011, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbeccen": { "v": 0.0069, "plus": 0.001, "minus": -0.0015, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbincl": { "v": 90.0322, "plus": 0.0022, "minus": -0.0023, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_insol": { "v": 0.2517, "plus": 0.0012, "minus": -0.0012, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 205.9, "plus": 6.95, "minus": -6.95, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "st_teff": { "v": 4450.0, "plus": 150.0, "minus": -150.0, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "st_rad": { "v": 0.6489, "plus": 0.0013, "minus": -0.0013, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "st_mass": { "v": 0.6897, "plus": 0.0035, "minus": -0.0034, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "st_lum": { "v": -0.90301, "plus": 0.00147, "minus": -0.00148, "limit": 0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } }, "st_age": { "v": 3.8, "plus": 3.7, "minus": -3.7, "limit": 0, "source": { "text": "Q1-Q8 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" } }, "st_met": { "v": -0.3, "plus": 0.2, "minus": -0.2, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "sy_dist": { "v": 75.0852, "plus": 0.1541, "minus": -0.1536, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-16 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series07-01-kepler-16-b-silver-field-d46624.webp", "sha256": "5a6e500be2cf735fb54013f5140fabe0b07502ce08ee14b5cac1ff8173b6b61f", "canonical_original": "World Images/warrior-series07-01-kepler-16-b-silver-field.jpg", "limitations": "The moon, grasslike vegetation, atmospheric haze, engraved stones and warrior are fictional. The parent giant is in the sky, not beneath the terrain. Its cloud structures, color, phase and angular diameter are illustrative. Both host stars are outside the frame; the sky does not reconstruct an observing date. All beings and cultures are fictional. Apparent sizes, phases and exposure are artistic, not a calibrated sky simulation. Cosmic connection is a visual theme, not an observed biological mechanism.", "review": "Accepted after distance edit: small warrior entirely from behind, meadow and continuous land horizon, immense indigo parent giant, quiet dawn. No window, spacecraft or galactic band. Fictional moon and apparent scale disclosed." }, { "registry_id": "warrior-series07-02-hd-128311-c-ring-lake-39d816", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "HD 128311", "mapping_basis": "generation manifest", "filename": "warrior-series07-02-hd-128311-c-ring-lake.jpg", "title": "The Still Water", "planet": "HD 128311 c", "category": "Real exoplanet setting", "series": "warrior-07", "description": "descriptions/warrior-series07-02-hd-128311-c-ring-lake-39d816.html", "image": "images/warrior-series07-02-hd-128311-c-ring-lake.jpg", "scientific_anchor": "HD 128311 c was discovered from its host star's radial-velocity variations. A later combination with Hubble astrometry constrained orbital inclination and a true mass of about 3.789 Jupiter masses, with +0.924/−0.432 reported errors. [2] The saved catalog distinguishes this value from a minimum mass and records an orbital period near 921.538 days. [1] These observations do not resolve rings or weather. The quiet lake and the ringed appearance belong entirely to the artistic reconstruction.", "scene_assumptions": "Distant broad-shouldered alien in an ochre cloak, viewed from behind in meditation. The tranquil lakeshore of an invented moon of HD 128311 c. The moon, lake, atmosphere, warrior, planet color and rings are all invented. The rings are a compositional hypothesis, not a detection. Their ellipse, shadows and occultation should remain coherent, but no particle distribution or satellite dynamics are calculated.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · HD 128311 c · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/HD%20128311%20c" }, { "text": "[2] McArthur et al. 2014 · Astrometry and radial velocity of HD 128311", "url": "https://digitalscholarship.tnstate.edu/coe-research/110/" }, { "text": " Vogt et al. 2005 ", "url": "https://ui.adsabs.harvard.edu/abs/2005ApJ...632..638V/abstract" }, { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" }, { "text": " Wittenmyer et al. 2009 ", "url": "https://ui.adsabs.harvard.edu/abs/2009ApJS..182...97W/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 13.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_bmasse": { "v": 1204.25787, "plus": 293.67492, "minus": -137.30256, "limit": 0, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "pl_dens": { "v": 3.01, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 921.538, "plus": 1.15, "minus": -1.15, "limit": 0, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "pl_orbsmax": { "v": 1.74, "plus": 0.01, "minus": -0.01, "limit": 0, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "pl_orbeccen": { "v": 0.159, "plus": 0.006, "minus": -0.006, "limit": 0, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "pl_orbincl": { "v": 55.95, "plus": 14.553, "minus": -14.553, "limit": 0, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "pl_insol": { "v": 0.1017, "plus": 0.0012, "minus": -0.0012, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 158.23, "plus": 2.55, "minus": -2.55, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "st_teff": { "v": 4965.0, "plus": 44.0, "minus": -44.0, "limit": 0, "source": { "text": " Wittenmyer et al. 2009 ", "url": "https://ui.adsabs.harvard.edu/abs/2009ApJS..182...97W/abstract" } }, "st_rad": { "v": 0.76, "plus": 0.02, "minus": -0.02, "limit": 0, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "st_mass": { "v": 0.828, "plus": 0.008, "minus": -0.012, "limit": 0, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "st_lum": { "v": -0.5116, "plus": 0.0007, "minus": -0.0007, "limit": 0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } }, "st_age": { "v": 0.96, "plus": null, "minus": null, "limit": 1, "source": { "text": "McArthur et al. 2014", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...795...41M/abstract" } }, "st_met": { "v": 0.08, "plus": 0.03, "minus": -0.03, "limit": 0, "source": { "text": " Wittenmyer et al. 2009 ", "url": "https://ui.adsabs.harvard.edu/abs/2009ApJS..182...97W/abstract" } }, "sy_dist": { "v": 16.3292, "plus": 0.0199, "minus": -0.0198, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "HD 128311 c", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series07-02-hd-128311-c-ring-lake-39d816.webp", "sha256": "1e17c5ba8fa4b6793cb51e3d7e9bd53e6dbb91e929a36f0be99f52022e1f0cdd", "canonical_original": "World Images/warrior-series07-02-hd-128311-c-ring-lake.jpg", "limitations": "The moon, lake, atmosphere, warrior, planet color and rings are all invented. The rings are a compositional hypothesis, not a detection. Their ellipse, shadows and occultation should remain coherent, but no particle distribution or satellite dynamics are calculated. All beings and cultures are fictional. Apparent sizes, phases and exposure are artistic, not a calibrated sky simulation. Cosmic connection is a visual theme, not an observed biological mechanism.", "review": "Accepted after distance edit: small rear-facing meditator on a natural lakeshore, calm reflection and ringed giant dominate. No window, spacecraft or galactic band. Invented rings and moon explicitly disclosed; geometry is illustrative." }, { "registry_id": "warrior-series07-03-kepler-62-f-moon-dunes-11165e", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-62", "mapping_basis": "generation manifest", "filename": "warrior-series07-03-kepler-62-f-moon-dunes.jpg", "title": "The Quiet Dunes", "planet": "Kepler-62 f", "category": "Real exoplanet setting", "series": "warrior-07", "description": "descriptions/warrior-series07-03-kepler-62-f-moon-dunes-11165e.html", "image": "images/warrior-series07-03-kepler-62-f-moon-dunes.jpg", "scientific_anchor": "Kepler-62 f was found by transits, which measure how much stellar light a crossing planet blocks. That method constrains radius relative to the host star; it does not reveal dunes, oceans or moons. The saved catalog retains source-specific radius and period measurements and a mass upper limit. [1] A habitable-zone classification concerns incident stellar energy under assumptions, rather than proof of a habitable surface. The satellite and quiet desert shown here are fictional. [2]", "scene_assumptions": "Small black-armored alien with a swept-back crest and sand-colored cloak, seen from behind in meditation. A speculative dry surface of Kepler-62 f beneath a fictional moon. The dunes, atmosphere, solid surface appearance, moon and warrior are hypothetical. The large cratered moon is unconfirmed; its size and orbit are not constrained or dynamically validated. The catalog mass limit must not be read as a precise measured mass.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · Kepler-62 f · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-62%20f" }, { "text": "[2] NASA · Kepler-62 f catalog overview", "url": "https://science.nasa.gov/exoplanet-catalog/kepler-62-f/" }, { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" }, { "text": "Weiss et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJS..270....8W/abstract" }, { "text": "Fulton & Petigura 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018AJ....156..264F/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 1.41, "plus": 0.07, "minus": -0.07, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "pl_bmasse": { "v": 35.0, "plus": null, "minus": null, "limit": 1, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "pl_dens": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_orbper": { "v": 267.291, "plus": 0.005, "minus": -0.005, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "pl_orbsmax": { "v": 0.718, "plus": 0.007, "minus": -0.007, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "pl_orbeccen": { "v": 0.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Weiss et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJS..270....8W/abstract" } }, "pl_orbincl": { "v": 89.9, "plus": 0.03, "minus": -0.03, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "pl_insol": { "v": 0.5, "plus": 0.0, "minus": 0.0, "limit": 0, "source": { "text": "Fulton & Petigura 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018AJ....156..264F/abstract" } }, "pl_eqt": { "v": 208.0, "plus": 11.0, "minus": -11.0, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "st_teff": { "v": 4925.0, "plus": 70.0, "minus": -70.0, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "st_rad": { "v": 0.64, "plus": 0.02, "minus": -0.02, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "st_mass": { "v": 0.69, "plus": 0.02, "minus": -0.02, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "st_lum": { "v": -0.678, "plus": 0.04, "minus": -0.043, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "st_age": { "v": 7.0, "plus": 4.0, "minus": -4.0, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "st_met": { "v": -0.37, "plus": 0.04, "minus": -0.04, "limit": 0, "source": { "text": " Borucki et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013Sci...340..587B/abstract" } }, "sy_dist": { "v": 300.874, "plus": 1.219, "minus": -1.219, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-62 f", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series07-03-kepler-62-f-moon-dunes-11165e.webp", "sha256": "c368d6100ebfd53fee127ef9affc66dbd818f0c9972ce4b5287d370108fe4796", "canonical_original": "World Images/warrior-series07-03-kepler-62-f-moon-dunes.jpg", "limitations": "The dunes, atmosphere, solid surface appearance, moon and warrior are hypothetical. The large cratered moon is unconfirmed; its size and orbit are not constrained or dynamically validated. The catalog mass limit must not be read as a precise measured mass. All beings and cultures are fictional. Apparent sizes, phases and exposure are artistic, not a calibrated sky simulation. Cosmic connection is a visual theme, not an observed biological mechanism.", "review": "Accepted after targeted sky and distance edit: distant rear-facing meditating figure, open ground and dune horizon, cratered moon, no Milky Way band, no spacecraft, window or barrier. Photographic surfaces and quiet illumination; lunar dimensions and observer location remain illustrative." }, { "registry_id": "warrior-series07-04-andromeda-halo-ea6dd0", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": null, "mapping_basis": "generation manifest", "filename": "warrior-series07-04-andromeda-halo.jpg", "title": "Beyond Andromeda's Edge", "planet": null, "category": "Fiction / unidentified archival setting", "series": "warrior-07", "description": "descriptions/warrior-series07-04-andromeda-halo-ea6dd0.html", "image": "images/warrior-series07-04-andromeda-halo.jpg", "scientific_anchor": "Andromeda is an observed spiral galaxy containing a bright central bulge, a broad stellar disk, dark dust lanes and regions with young blue stars. Hubble observations resolve individual stars and reveal structure in its stellar populations. [1] The image imagines a view toward that disk from an unconfirmed planet in the galaxy's outer halo. This makes a broad external view a stated fictional perspective rather than enlarging Andromeda's small terrestrial angular size without explanation. No local planetary measurements are supplied because the foreground world and host are invented.", "scene_assumptions": "Small alien silhouette with a folded charcoal mantle, viewed from behind in meditation. An invented solid planet around an unspecified star outside Andromeda's main disk. The planet, local star, snow plain, atmosphere, warrior and viewing location are entirely fictional. No confirmed exoplanet or real host assignment is claimed. Andromeda supplies the observed galactic structure; the sky is imagined from a nearby halo viewpoint, not from Earth or a nearby Milky Way exoplanet. Inclination, angular extent, exposure and detailed morphology are illustrative. It is excluded from the real exoplanet host map.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA/Hubble · Andromeda's observed stars, disk and dust structure", "url": "https://science.nasa.gov/missions/hubble/nasas-hubble-traces-hidden-history-of-andromeda-galaxy/" } ], "measurements": null, "original_context": [], "setting_name": "M31 / Andromeda", "galaxy": "M31 / Andromeda", "fictional_world": "Fictional world in Andromeda's outer halo", "preview": "assets/images/warrior-series07-04-andromeda-halo-ea6dd0.webp", "sha256": "f571e065483d7bee0d17613a2e9921b5db8f3952703a663153b5de41d6eae4fc", "canonical_original": "World Images/warrior-series07-04-andromeda-halo.jpg", "limitations": "The planet, local star, snow plain, atmosphere, warrior and viewing location are entirely fictional. No confirmed exoplanet or real host assignment is claimed. Andromeda supplies the observed galactic structure; the sky is imagined from a nearby halo viewpoint, not from Earth or a nearby Milky Way exoplanet. Inclination, angular extent, exposure and detailed morphology are illustrative. It is excluded from the real exoplanet host map. All beings and cultures are fictional. Apparent sizes, phases and exposure are artistic, not a calibrated sky simulation. Cosmic connection is a visual theme, not an observed biological mechanism.", "review": "Accepted after distance edit: small rear-facing meditator on a snow plain beneath an external inclined Andromeda-like disk, bulge and dust lanes. No Milky Way band or interior framing. Nearby halo world, exposure and projection explicitly fictional; no real planet or host assigned." }, { "registry_id": "warrior-series07-05-kepler-442-b-green-meadow-426525", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-442", "mapping_basis": "generation manifest", "filename": "warrior-series07-05-kepler-442-b-green-meadow.jpg", "title": "The Moonlit Meadow", "planet": "Kepler-442 b", "category": "Real exoplanet setting", "series": "warrior-07", "description": "descriptions/warrior-series07-05-kepler-442-b-green-meadow-426525.html", "image": "images/warrior-series07-05-kepler-442-b-green-meadow.jpg", "scientific_anchor": "Kepler-442 b is a transiting planet around a cooler-than-Sun host. Transit depth constrains its size relative to the star, while the inferred energy environment depends on the stellar properties and orbital distance. [1,2] These measurements are relevant to possible climates but do not establish vegetation, water or a moon. The companion table preserves the catalog's calculated-value labels and uncertainties. The meadow and nearby satellite are artistic assumptions.", "scene_assumptions": "Distant ivory-crested alien with a moss-grey cloak, viewed from behind in meditation. A hypothetical meadow on Kepler-442 b beneath an invented moon. The meadow, vegetation, sky, atmosphere, moon and being are fictional. The planet's radius comes from transit measurements; the landscape does not establish a composition or climate. The large pale satellite has no observational confirmation or tested orbit.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · Kepler-442 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-442%20b" }, { "text": "[2] NASA · Kepler-442 b", "url": "https://science.nasa.gov/exoplanet-catalog/kepler-442-b/" }, { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" }, { "text": "Q1-Q17 DR25 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 1.34, "plus": 0.11, "minus": -0.18, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_bmasse": { "v": 2.36, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_dens": { "v": 5.39, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 112.3053, "plus": 0.0024, "minus": -0.0028, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_orbsmax": { "v": 0.409, "plus": 0.209, "minus": -0.06, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_orbeccen": { "v": 0.04, "plus": 0.08, "minus": -0.04, "limit": -1, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_orbincl": { "v": 89.94, "plus": 0.06, "minus": -0.12, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_insol": { "v": 0.66, "plus": 0.23, "minus": -0.41, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_eqt": { "v": 241.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Q1-Q17 DR25 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" } }, "st_teff": { "v": 4402.0, "plus": 100.0, "minus": -100.0, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "st_rad": { "v": 0.598, "plus": 0.023, "minus": -0.024, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "st_mass": { "v": 0.609, "plus": 0.03, "minus": -0.026, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "st_lum": { "v": -0.932, "plus": 0.081, "minus": -0.064, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "st_age": { "v": 2.9, "plus": 8.1, "minus": -0.2, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "st_met": { "v": -0.37, "plus": 0.1, "minus": -0.1, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "sy_dist": { "v": 365.965, "plus": 2.763, "minus": -2.724, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-442 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series07-05-kepler-442-b-green-meadow-426525.webp", "sha256": "82697d768a9eab480685e539ab79386b561293312632149b59200f1c2658bcfb", "canonical_original": "World Images/warrior-series07-05-kepler-442-b-green-meadow.jpg", "limitations": "The meadow, vegetation, sky, atmosphere, moon and being are fictional. The planet's radius comes from transit measurements; the landscape does not establish a composition or climate. The large pale satellite has no observational confirmation or tested orbit. All beings and cultures are fictional. Apparent sizes, phases and exposure are artistic, not a calibrated sky simulation. Cosmic connection is a visual theme, not an observed biological mechanism.", "review": "Accepted after distance edit: small rear-facing warrior in a quiet meadow with stream, large cratered and fractured fictional moon, subdued dusk. No Milky Way band, windows, structures or spacecraft. Landscape and satellite are explicitly hypothetical." }, { "registry_id": "warrior-series07-06-proxima-cen-b-crescent-shore-773681", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Proxima Cen", "mapping_basis": "generation manifest", "filename": "warrior-series07-06-proxima-cen-b-crescent-shore.jpg", "title": "The Crescent Shore", "planet": "Proxima Cen b", "category": "Real exoplanet setting", "series": "warrior-07", "description": "descriptions/warrior-series07-06-proxima-cen-b-crescent-shore-773681.html", "image": "images/warrior-series07-06-proxima-cen-b-crescent-shore.jpg", "scientific_anchor": "Proxima Centauri b was detected through periodic radial-velocity motion of its nearby host star. This method by itself constrains a mass multiplied by an orbital-inclination factor; the saved catalog's mass provenance and source estimates remain visible in the companion data. [1,2] Neither a shoreline nor a satellite follows from that detection. The scene explores one hypothetical surface, with a fictional moon providing its dominant visual form.", "scene_assumptions": "Small dark-armored alien with a long slate mantle, seen from behind in meditation. A hypothetical calm shoreline on Proxima Centauri b beneath an invented moon. The sea, beach, local atmosphere, reflective liquid, moon and warrior are imagined. Radial velocities do not directly map Proxima b's radius or terrain. The crescent moon is unconfirmed. Its phase and apparent size, and the shoreline's illumination, are artistic choices.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · Proxima Cen b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Proxima%20Cen%20b" }, { "text": "[2] ESO · Planet found orbiting Proxima Centauri", "url": "https://www.eso.org/public/news/eso1629/" }, { "text": "Anglada-Escudé et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016Natur.536..437A/abstract" }, { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 1.02, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_bmasse": { "v": 1.055, "plus": 0.055, "minus": -0.055, "limit": 0, "source": { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" } }, "pl_dens": { "v": 5.46, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 11.18465, "plus": 0.00053, "minus": -0.00053, "limit": 0, "source": { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" } }, "pl_orbsmax": { "v": 0.04848, "plus": 0.00029, "minus": -0.00029, "limit": 0, "source": { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" } }, "pl_orbeccen": { "v": 0.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" } }, "pl_orbincl": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_insol": { "v": 0.641, "plus": 0.065, "minus": -0.065, "limit": 0, "source": { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" } }, "pl_eqt": { "v": 218.0, "plus": 18.0, "minus": -18.0, "limit": 0, "source": { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" } }, "st_teff": { "v": 2900.0, "plus": 100.0, "minus": -100.0, "limit": 0, "source": { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" } }, "st_rad": { "v": 0.141, "plus": 0.021, "minus": -0.021, "limit": 0, "source": { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" } }, "st_mass": { "v": 0.1221, "plus": 0.0022, "minus": -0.0022, "limit": 0, "source": { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" } }, "st_lum": { "v": -2.82102, "plus": 0.02242, "minus": -0.02364, "limit": 0, "source": { "text": "Suárez Mascareño et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...700A..11M/abstract" } }, "st_age": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "st_met": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "sy_dist": { "v": 1.30119, "plus": 0.00034, "minus": -0.00035, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Proxima Cen b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series07-06-proxima-cen-b-crescent-shore-773681.webp", "sha256": "0760fa5ec8bf6447ea6a84d0db58f239da7a54ff8cd1b0c577d801592426a7b1", "canonical_original": "World Images/warrior-series07-06-proxima-cen-b-crescent-shore.jpg", "limitations": "The sea, beach, local atmosphere, reflective liquid, moon and warrior are imagined. Radial velocities do not directly map Proxima b's radius or terrain. The crescent moon is unconfirmed. Its phase and apparent size, and the shoreline's illumination, are artistic choices. All beings and cultures are fictional. Apparent sizes, phases and exposure are artistic, not a calibrated sky simulation. Cosmic connection is a visual theme, not an observed biological mechanism.", "review": "Accepted after distance edit: distant rear-facing warrior on a natural rocky beach, calm sea and large crescent moon. Dark lunar disk is opaque; no stars show through it. No galactic band or enclosure. Satellite and atmosphere remain fictional." }, { "registry_id": "warrior-series07-07-55-cnc-e-great-star-50301a", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "55 Cnc", "mapping_basis": "generation manifest", "filename": "warrior-series07-07-55-cnc-e-great-star.jpg", "title": "Before the Great Star", "planet": "55 Cnc e", "category": "Real exoplanet setting", "series": "warrior-07", "description": "descriptions/warrior-series07-07-55-cnc-e-great-star-50301a.html", "image": "images/warrior-series07-07-55-cnc-e-great-star.jpg", "scientific_anchor": "55 Cancri e orbits its star in less than a day. Its proximity makes the host star subtend a much larger angle than the Sun does from Earth. The saved stellar radius and orbital semimajor axis support that geometric interpretation, with their source uncertainties retained. [1] Webb observations provide evidence for an atmosphere, while its detailed composition and interaction with the hot interior remain subjects of interpretation. [2] The calm rocky foreground and its inhabitant are fictional, and the picture does not imply mild temperatures.", "scene_assumptions": "Small broad-armored alien with a low fan crest, viewed from behind in meditation. A hypothetical solid-rock boundary landscape on 55 Cancri e. The ground texture, placid glasslike basin, atmospheric haze and being are invented. The real close orbit motivates a very large stellar disk, but this image is not a surface-weather or thermal simulation. No comfortable climate or human survival is implied. The quiet pose and environment do not change the system's extreme irradiation.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · 55 Cnc e · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/55%20Cnc%20e" }, { "text": "[2] NASA/Webb · Possible atmosphere around 55 Cancri e", "url": "https://science.nasa.gov/missions/webb/nasas-webb-hints-at-possible-atmosphere-surrounding-rocky-exoplanet/" }, { "text": " McArthur et al. 2004 ", "url": "https://ui.adsabs.harvard.edu/abs/2004ApJ...614L..81M/abstract" }, { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" }, { "text": "ExoFOP", "url": "https://exofop.ipac.caltech.edu/tess/view_toi.php" }, { "text": "Demory et al. 2011", "url": "https://ui.adsabs.harvard.edu/abs/2011A&A...533A.114D/abstract" }, { "text": "Knapp et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....160...23K/abstract" }, { "text": " Marcy et al. 2002 ", "url": "https://ui.adsabs.harvard.edu/abs/2002ApJ...581.1375M/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 1.875, "plus": 0.029, "minus": -0.029, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "pl_bmasse": { "v": 7.99, "plus": 0.32, "minus": -0.33, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "pl_dens": { "v": 6.66, "plus": 0.43, "minus": -0.4, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "pl_orbper": { "v": 0.7365474, "plus": 1.3e-06, "minus": -1.4e-06, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "pl_orbsmax": { "v": 0.01544, "plus": 5e-05, "minus": -5e-05, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "pl_orbeccen": { "v": 0.05, "plus": 0.03, "minus": -0.03, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "pl_orbincl": { "v": 83.59, "plus": 0.47, "minus": -0.44, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "pl_insol": { "v": 2657.8322, "plus": null, "minus": null, "limit": 0, "source": { "text": "ExoFOP", "url": "https://exofop.ipac.caltech.edu/tess/view_toi.php" } }, "pl_eqt": { "v": 1958.0, "plus": 15.0, "minus": -15.0, "limit": 0, "source": { "text": "Demory et al. 2011", "url": "https://ui.adsabs.harvard.edu/abs/2011A&A...533A.114D/abstract" } }, "st_teff": { "v": 5172.0, "plus": 18.0, "minus": -18.0, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "st_rad": { "v": 0.943, "plus": 0.01, "minus": -0.01, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "st_mass": { "v": 0.905, "plus": 0.015, "minus": -0.015, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "st_lum": { "v": -0.19695, "plus": 0.0125, "minus": -0.01039, "limit": 0, "source": { "text": "Knapp et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020AJ....160...23K/abstract" } }, "st_age": { "v": 5.5, "plus": 2.5, "minus": -2.5, "limit": 0, "source": { "text": " Marcy et al. 2002 ", "url": "https://ui.adsabs.harvard.edu/abs/2002ApJ...581.1375M/abstract" } }, "st_met": { "v": 0.35, "plus": 0.1, "minus": -0.1, "limit": 0, "source": { "text": "Bourrier et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...619A...1B/abstract" } }, "sy_dist": { "v": 12.5855, "plus": 0.0124, "minus": -0.0123, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "55 Cnc e", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series07-07-55-cnc-e-great-star-50301a.webp", "sha256": "4cfb3835b17871ddbc17e2ac9a7c4d233ece90f0bc1be5fc04f78d14d3096f66", "canonical_original": "World Images/warrior-series07-07-55-cnc-e-great-star.jpg", "limitations": "The ground texture, placid glasslike basin, atmospheric haze and being are invented. The real close orbit motivates a very large stellar disk, but this image is not a surface-weather or thermal simulation. No comfortable climate or human survival is implied. The quiet pose and environment do not change the system's extreme irradiation. All beings and cultures are fictional. Apparent sizes, phases and exposure are artistic, not a calibrated sky simulation. Cosmic connection is a visual theme, not an observed biological mechanism.", "review": "Accepted after distance edit: tiny rear-facing seated warrior on a broad solid obsidian plain, enormous stellar disk and quiet glasslike basin. Bright-sky exposure suppresses the starfield; no eruption, spacecraft or window. Harsh irradiation and fictional terrain remain explicitly distinguished from visual calm." }, { "registry_id": "warrior-series07-08-hr-8799-e-frozen-lake-2c4908", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "HR 8799", "mapping_basis": "generation manifest", "filename": "warrior-series07-08-hr-8799-e-frozen-lake.jpg", "title": "The Frozen Mirror", "planet": "HR 8799 e", "category": "Real exoplanet setting", "series": "warrior-07", "description": "descriptions/warrior-series07-08-hr-8799-e-frozen-lake-2c4908.html", "image": "images/warrior-series07-08-hr-8799-e-frozen-lake.jpg", "scientific_anchor": "HR 8799 e is a young giant whose light has been directly detected separately from its host star. GRAVITY interferometry measured its position and obtained a K-band spectrum used to investigate atmospheric properties. [2] A young planet can remain bright in the infrared as internal heat escapes. That evidence motivates the warm planetary presence, while leaving the depicted cloud shapes and visible colors interpretive. Catalog radius and mass estimates retain their broad, model-dependent uncertainties. [1]", "scene_assumptions": "Small pale-crested alien wearing an ash-grey cloak, viewed from behind in meditation. A frozen lake on an invented moon of HR 8799 e. The moon, lake, ice, atmosphere and warrior are fictional. The young giant's muted warm hue is a visible artistic translation of thermal infrared emission, not a prediction of naked-eye color. The icy terrain is not the giant's own surface. Satellite dynamics and local climate are unmodeled.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · HR 8799 e · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/HR%208799%20e" }, { "text": "[2] GRAVITY Collaboration 2019 · Interferometry and spectroscopy of HR 8799 e", "url": "https://arxiv.org/abs/1903.11903" }, { "text": " Marois et al. 2010 ", "url": "https://ui.adsabs.harvard.edu/abs/2010Natur.468.1080M/abstract" }, { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" }, { "text": "Zurlo et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016A&A...587A..57Z/abstract" }, { "text": "Konopacky et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016AJ....152...28K/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 13.11453, "plus": 1.45717, "minus": -1.23299, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "pl_bmasse": { "v": 3178.3, "plus": 2224.81, "minus": -1271.32, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "pl_dens": { "v": 7.74, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 20815.6, "plus": 1128.62, "minus": -1128.62, "limit": 0, "source": { "text": "Zurlo et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016A&A...587A..57Z/abstract" } }, "pl_orbsmax": { "v": 16.4, "plus": 2.1, "minus": -1.1, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "pl_orbeccen": { "v": 0.15, "plus": 0.08, "minus": -0.08, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "pl_orbincl": { "v": 25.0, "plus": 8.0, "minus": -8.0, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "pl_insol": { "v": 0.0201, "plus": 0.004, "minus": -0.004, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 1150.0, "plus": 50.0, "minus": -50.0, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "st_teff": { "v": 7400.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "st_rad": { "v": 1.49338, "plus": 0.049341, "minus": -0.050935, "limit": 0, "source": { "text": "Konopacky et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016AJ....152...28K/abstract" } }, "st_mass": { "v": 1.51, "plus": 0.038, "minus": -0.024, "limit": 0, "source": { "text": "Zurlo et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016A&A...587A..57Z/abstract" } }, "st_lum": { "v": 0.73347, "plus": 0.01645, "minus": -0.01535, "limit": 0, "source": { "text": "Konopacky et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016AJ....152...28K/abstract" } }, "st_age": { "v": 0.03, "plus": null, "minus": null, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "st_met": { "v": -0.5, "plus": null, "minus": null, "limit": 0, "source": { "text": "Gravity Collaboration et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019A&A...623L..11G/abstract" } }, "sy_dist": { "v": 41.2441, "plus": 0.1515, "minus": -0.1505, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "HR 8799 e", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series07-08-hr-8799-e-frozen-lake-2c4908.webp", "sha256": "4c92fe7c53309b706ea8cf50d661fa2a510e84eb3b9db7d92dfe550beaae9fa2", "canonical_original": "World Images/warrior-series07-08-hr-8799-e-frozen-lake.jpg", "limitations": "The moon, lake, ice, atmosphere and warrior are fictional. The young giant's muted warm hue is a visible artistic translation of thermal infrared emission, not a prediction of naked-eye color. The icy terrain is not the giant's own surface. Satellite dynamics and local climate are unmodeled. All beings and cultures are fictional. Apparent sizes, phases and exposure are artistic, not a calibrated sky simulation. Cosmic connection is a visual theme, not an observed biological mechanism.", "review": "Accepted after distance edit: small rear-facing meditator on a natural icy shore, frozen lake and immense dusky parent giant. No window, spacecraft or Milky Way band. Planet color is described as an artistic thermal-infrared translation and the icy moon is fictional." }, { "registry_id": "warrior-series07-09-antennae-merger-8e9d2c", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": null, "mapping_basis": "generation manifest", "filename": "warrior-series07-09-antennae-merger.jpg", "title": "Under Joining Galaxies", "planet": null, "category": "Fiction / unidentified archival setting", "series": "warrior-07", "description": "descriptions/warrior-series07-09-antennae-merger-8e9d2c.html", "image": "images/warrior-series07-09-antennae-merger.jpg", "scientific_anchor": "NGC 4038 and NGC 4039, the Antennae galaxies, are an interacting pair with distorted stellar distributions, dust and long tidal tails. Their structures are evidence of a gravitational encounter; observations also reveal star formation within the disturbed system. [1] Galaxies are not solid bodies that collide as glowing balls. The wallpaper uses two disrupted stellar concentrations and faint tails to interpret their shared structure. The foreground planet and viewing direction are invented, enabling a wide nearby view without assigning this scene to a catalogued Milky Way exoplanet.", "scene_assumptions": "Small alien warrior with a split crest and muted bronze cloak, viewed from behind in meditation. An invented ground-level world in the distant outskirts of the Antennae galaxy pair. The world, local host star, meadow, atmosphere, warrior and observer position are fictional. NGC 4038 and NGC 4039 are the real astronomical references; there is no confirmed planet or exoplanet-map assignment here. The pair's apparent scale, projection and diffuse brightness are illustrative. Galaxy interaction proceeds over immense timescales; the scene does not depict an instantaneous explosion.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] ESA/Hubble · Antennae Galaxies, NGC 4038 and NGC 4039", "url": "https://esahubble.org/images/potw1345a/" } ], "measurements": null, "original_context": [], "setting_name": "NGC 4038 / NGC 4039 — Antennae", "galaxy": "NGC 4038 / NGC 4039 — Antennae", "fictional_world": "Fictional world in the outskirts of the Antennae system", "preview": "assets/images/warrior-series07-09-antennae-merger-8e9d2c.webp", "sha256": "84bdd79eeef97ee19e81d19c70b65130302f52b93b080efa2828d0132e49286f", "canonical_original": "World Images/warrior-series07-09-antennae-merger.jpg", "limitations": "The world, local host star, meadow, atmosphere, warrior and observer position are fictional. NGC 4038 and NGC 4039 are the real astronomical references; there is no confirmed planet or exoplanet-map assignment here. The pair's apparent scale, projection and diffuse brightness are illustrative. Galaxy interaction proceeds over immense timescales; the scene does not depict an instantaneous explosion. All beings and cultures are fictional. Apparent sizes, phases and exposure are artistic, not a calibrated sky simulation. Cosmic connection is a visual theme, not an observed biological mechanism.", "review": "Accepted after distance edit: small rear-facing warrior on open meadow ground beneath an interacting pair with two stellar concentrations, distorted arms, dust lanes and tails. No Milky Way band, enclosure or spacecraft. Antennae morphology is inspiration, not an exact reconstruction; foreground world and projection are fictional and unmapped." }, { "registry_id": "warrior-series07-10-kepler-1647-b-rain-4fa237", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-1647", "mapping_basis": "generation manifest", "filename": "warrior-series07-10-kepler-1647-b-rain.jpg", "title": "Stillness in the Rain", "planet": "Kepler-1647 b", "category": "Real exoplanet setting", "series": "warrior-07", "description": "descriptions/warrior-series07-10-kepler-1647-b-rain-4fa237.html", "image": "images/warrior-series07-10-kepler-1647-b-rain.jpg", "scientific_anchor": "Kepler-1647 b is a giant planet on a circumbinary orbit around two stars. Transit observations and orbital modeling established a long period of roughly three Earth years and a radius comparable to Jupiter's. [1,2] Its irradiation environment does not establish rain, lightning or a habitable satellite. The image places the observer on a fictional moon so that a solid foreground can coexist with a large parent planet. The storm is entirely part of the imagined setting.", "scene_assumptions": "Small seated alien warrior with a rain-darkened cloak and low crest, seen from behind in meditation. An open rain-soaked field on an invented moon of Kepler-1647 b. The moon, breathable-looking sky, field, rain, lightning and warrior are invented. Kepler-1647 b is the giant above the land, not the surface being occupied. Clouds obscure the two real stellar hosts. Weather, planetary phase and local illumination are not predictions for this system; no moon stability or climate model is claimed.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · Kepler-1647 b · composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-1647%20b" }, { "text": "[2] Kostov et al. · Kepler-1647 b circumbinary discovery", "url": "https://arxiv.org/abs/1512.00189" }, { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 11.8739, "plus": 0.1377, "minus": -0.1377, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "pl_bmasse": { "v": 483.0, "plus": 206.0, "minus": -206.0, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "pl_dens": { "v": 1.59, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 1107.5923, "plus": 0.0227, "minus": -0.0227, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "pl_orbsmax": { "v": 2.7205, "plus": 0.007, "minus": -0.007, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "pl_orbeccen": { "v": 0.0581, "plus": 0.0689, "minus": -0.0689, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "pl_orbincl": { "v": 90.0972, "plus": 0.0035, "minus": -0.0035, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "pl_insol": { "v": 0.5956, "plus": 0.0339, "minus": -0.0339, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 242.92, "plus": 3.94, "minus": -3.94, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "st_teff": { "v": 6210.0, "plus": 100.0, "minus": -100.0, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "st_rad": { "v": 1.7903, "plus": 0.0055, "minus": -0.0055, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "st_mass": { "v": 1.2207, "plus": 0.0112, "minus": -0.0112, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "st_lum": { "v": 0.64425, "plus": 0.0239, "minus": -0.02529, "limit": 0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } }, "st_age": { "v": 4.4, "plus": 0.25, "minus": -0.25, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "st_met": { "v": -0.14, "plus": 0.05, "minus": -0.05, "limit": 0, "source": { "text": "Kostov et al. 2016", "url": "https://ui.adsabs.harvard.edu/abs/2016ApJ...827...86K/abstract" } }, "sy_dist": { "v": 1212.45, "plus": 22.335, "minus": -22.335, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-1647 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series07-10-kepler-1647-b-rain-4fa237.webp", "sha256": "bcf9d6506854923906c0364a5136340e6f1c78f740a9cfd359818af639897163", "canonical_original": "World Images/warrior-series07-10-kepler-1647-b-rain.jpg", "limitations": "The moon, breathable-looking sky, field, rain, lightning and warrior are invented. Kepler-1647 b is the giant above the land, not the surface being occupied. Clouds obscure the two real stellar hosts. Weather, planetary phase and local illumination are not predictions for this system; no moon stability or climate model is claimed. All beings and cultures are fictional. Apparent sizes, phases and exposure are artistic, not a calibrated sky simulation. Cosmic connection is a visual theme, not an observed biological mechanism.", "review": "Accepted after distance edit: tiny rear-facing meditating warrior on wet natural ground, heavy rain, puddles, distant branching lightning and a parent giant behind broken storm clouds. This is the only storm in the set. No enclosure, spacecraft or Milky Way band. Moon, weather and climate are invented." }, { "registry_id": "warrior-series08-01-kepler-38-b-two-light-terrace-1ea944", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-38", "mapping_basis": "generation manifest", "filename": "warrior-series08-01-kepler-38-b-two-light-terrace.jpg", "title": "The Two-Light Terrace", "planet": "Kepler-38 b", "category": "Real exoplanet setting", "series": "warrior-08", "description": "descriptions/warrior-series08-01-kepler-38-b-two-light-terrace-1ea944.html", "image": "images/warrior-series08-01-kepler-38-b-two-light-terrace.jpg", "scientific_anchor": "Kepler-38 b is a transiting circumbinary planet: it orbits both members of an eclipsing stellar pair. Its saved catalog period is 105.599 days. Transit geometry constrains the planet's radius and orbit; the saved mass entry is an upper limit, not a measured mass of exactly 122 Earth masses. [1,2] The two visible suns interpret the binary nature of the system. Their rendered separation and angular sizes do not reconstruct a particular date.", "scene_assumptions": "Bronze humanoid with swept-back cranial ridges in a seated extension with one upright open palm. Copper sandstone cliff sanctuary above a rust-red mesa basin. The foreground belongs to an invented solid moon, not the gas-rich planet itself. No such moon, cliff sanctuary, atmosphere, organism or culture has been detected. The landscape, star colors, apparent stellar sizes and illumination are artistic; no satellite orbit or surface climate has been validated.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · Kepler-38 b · saved composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-38%20b" }, { "text": "[2] Orosz et al. (2012) · The Neptune-sized Circumbinary Planet Kepler-38b", "url": "https://arxiv.org/abs/1208.3712" }, { "text": " Orosz et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012ApJ...758...87O/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 4.3, "plus": 0.11, "minus": -0.11, "limit": 0, "source": { "text": " Orosz et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012ApJ...758...87O/abstract" } }, "pl_bmasse": { "v": 122.0, "plus": null, "minus": null, "limit": 1, "source": { "text": " Orosz et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012ApJ...758...87O/abstract" } }, "pl_dens": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_orbper": { "v": 105.599, "plus": 0.038, "minus": -0.053, "limit": 0, "source": { "text": " Orosz et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012ApJ...758...87O/abstract" } }, "pl_orbsmax": { "v": 0.4632, "plus": 0.0082, "minus": -0.0092, "limit": 0, "source": { "text": " Orosz et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012ApJ...758...87O/abstract" } }, "pl_orbeccen": { "v": 0.032, "plus": null, "minus": null, "limit": 1, "source": { "text": " Orosz et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012ApJ...758...87O/abstract" } }, "pl_orbincl": { "v": 89.442, "plus": 0.03, "minus": -0.026, "limit": 0, "source": { "text": " Orosz et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012ApJ...758...87O/abstract" } }, "pl_insol": { "v": 14.4568, "plus": 0.9452, "minus": -0.9452, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 475.0, "plus": null, "minus": null, "limit": 0, "source": { "text": " Orosz et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012ApJ...758...87O/abstract" } }, "st_teff": { "v": 5623.0, "plus": 50.0, "minus": -50.0, "limit": 0, "source": { "text": " Orosz et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012ApJ...758...87O/abstract" } }, "st_rad": { "v": 1.752, "plus": 0.031, "minus": -0.034, "limit": 0, "source": { "text": " Orosz et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012ApJ...758...87O/abstract" } }, "st_mass": { "v": 0.941, "plus": 0.055, "minus": -0.059, "limit": 0, "source": { "text": " Orosz et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012ApJ...758...87O/abstract" } }, "st_lum": { "v": 0.49161, "plus": 0.02262, "minus": -0.02386, "limit": 0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } }, "st_age": { "v": 10.0, "plus": 3.0, "minus": -3.0, "limit": 0, "source": { "text": " Orosz et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012ApJ...758...87O/abstract" } }, "st_met": { "v": -0.11, "plus": 0.08, "minus": -0.08, "limit": 0, "source": { "text": " Orosz et al. 2012 ", "url": "https://ui.adsabs.harvard.edu/abs/2012ApJ...758...87O/abstract" } }, "sy_dist": { "v": 1174.59, "plus": 20.53, "minus": -19.85, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-38 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series08-01-kepler-38-b-two-light-terrace-1ea944.webp", "sha256": "19fff4460a9741d8256fc6970ab6286a765ff09968f6f90bd702305e02a211d6", "canonical_original": "World Images/warrior-series08-01-kepler-38-b-two-light-terrace.jpg", "limitations": "The foreground belongs to an invented solid moon, not the gas-rich planet itself. No such moon, cliff sanctuary, atmosphere, organism or culture has been detected. The landscape, star colors, apparent stellar sizes and illumination are artistic; no satellite orbit or surface climate has been validated. All warriors and cultures are fictional. Peace and strength are visual themes; no character thoughts, teachings or biological cosmic-energy mechanism are supplied.", "review": "Both separated stellar disks, complete seated extension and raised palm, continuous sandstone terrain and physical relief are visible. The warrior occupies roughly 23% of image height, substantially smaller than in the supplied pose reference." }, { "registry_id": "warrior-series08-02-hd-106906-b-blue-court-3c6c88", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "HD 106906", "mapping_basis": "generation manifest", "filename": "warrior-series08-02-hd-106906-b-blue-court.jpg", "title": "The Distant Blue Court", "planet": "HD 106906 b", "category": "Real exoplanet setting", "series": "warrior-08", "description": "descriptions/warrior-series08-02-hd-106906-b-blue-court-3c6c88.html", "image": "images/warrior-series08-02-hd-106906-b-blue-court.jpg", "scientific_anchor": "HD 106906 b is a directly imaged planetary-mass companion far outside its host binary's debris disk. Hubble astrometry measured its motion and supports a wide, inclined orbit; the observations span only a small fraction of that long orbit. [1,2] The distant host is rendered as two small points. A young giant can retain heat, but this blue, visibly luminous cloud portrait is an invented spectral rendering, not an observed resolved image.", "scene_assumptions": "Pearl-grey humanoid with a flattened cranial crest in a held horse stance with open palms lowered. Slate court at the edge of a broad glacier valley. The icy moon, stable satellite orbit, glacier, courtyard, atmosphere, alien and carvings are fictional. The giant's cobalt emission, cloud map, brightness and apparent diameter are artistic. The binary point separation is illustrative; the catalog's single-star parameter row and unflagged circumbinary field are not a full model of the binary established in the cited study.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · HD 106906 b · saved composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/HD%20106906%20b" }, { "text": "[2] ESA/Hubble · Hubble identifies a distant planet around a double star", "url": "https://esahubble.org/news/heic2021/" }, { "text": " Bailey et al. 2014 ", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...780L...4B/abstract" }, { "text": "Daemgen et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017A&A...608A..71D/abstract" }, { "text": "Swastik et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161..114S/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 12.4, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_bmasse": { "v": 3496.0, "plus": 636.0, "minus": -636.0, "limit": 0, "source": { "text": " Bailey et al. 2014 ", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...780L...4B/abstract" } }, "pl_dens": { "v": 10.1, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_orbsmax": { "v": 650.0, "plus": null, "minus": null, "limit": 0, "source": { "text": " Bailey et al. 2014 ", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...780L...4B/abstract" } }, "pl_orbeccen": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_orbincl": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_insol": { "v": 0.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 1800.0, "plus": 100.0, "minus": -100.0, "limit": 0, "source": { "text": " Bailey et al. 2014 ", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...780L...4B/abstract" } }, "st_teff": { "v": 6516.0, "plus": 165.0, "minus": -165.0, "limit": 0, "source": { "text": " Bailey et al. 2014 ", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...780L...4B/abstract" } }, "st_rad": { "v": 2.12351, "plus": 0.082026, "minus": -0.104165, "limit": 0, "source": { "text": "Daemgen et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017A&A...608A..71D/abstract" } }, "st_mass": { "v": 1.5, "plus": 0.1, "minus": -0.1, "limit": 0, "source": { "text": " Bailey et al. 2014 ", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...780L...4B/abstract" } }, "st_lum": { "v": 0.75, "plus": 0.06, "minus": -0.06, "limit": 0, "source": { "text": " Bailey et al. 2014 ", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...780L...4B/abstract" } }, "st_age": { "v": 0.013, "plus": 0.002, "minus": -0.002, "limit": 0, "source": { "text": " Bailey et al. 2014 ", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...780L...4B/abstract" } }, "st_met": { "v": 0.04, "plus": 0.01, "minus": -0.02, "limit": 0, "source": { "text": "Swastik et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161..114S/abstract" } }, "sy_dist": { "v": 103.029, "plus": 0.461, "minus": -0.457, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "HD 106906 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series08-02-hd-106906-b-blue-court-3c6c88.webp", "sha256": "660ab18b108f63f154c1185c549f87bb2908c36c2a8abe406d83733dc4542162", "canonical_original": "World Images/warrior-series08-02-hd-106906-b-blue-court.jpg", "limitations": "The icy moon, stable satellite orbit, glacier, courtyard, atmosphere, alien and carvings are fictional. The giant's cobalt emission, cloud map, brightness and apparent diameter are artistic. The binary point separation is illustrative; the catalog's single-star parameter row and unflagged circumbinary field are not a full model of the binary established in the cited study. All warriors and cultures are fictional. Peace and strength are visual themes; no character thoughts, teachings or biological cosmic-energy mechanism are supplied.", "review": "Full horse stance, planted feet, blue glacial terrain and slate relief are visible. Indigo planet dominates; two small stellar points lie near the right horizon. The stellar separation and bright blue planetary emission are illustrative." }, { "registry_id": "warrior-series08-03-au-mic-b-red-limb-5d028e", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "AU Mic", "mapping_basis": "generation manifest", "filename": "warrior-series08-03-au-mic-b-red-limb.jpg", "title": "Stillness at the Red Limb", "planet": "AU Mic b", "category": "Real exoplanet setting", "series": "warrior-08", "description": "descriptions/warrior-series08-03-au-mic-b-red-limb-5d028e.html", "image": "images/warrior-series08-03-au-mic-b-red-limb.jpg", "scientific_anchor": "AU Mic is a young, magnetically active red dwarf surrounded by a debris disk. TESS and Spitzer identified AU Mic b through transits, while stellar spots and flares complicate the light curve. [1,2] The saved catalog period is 8.463446 days. Starspots and the drawn prominence evoke that activity; they do not reproduce an observed map of the star or a measured eruption. A debris disk is composed of material distributed over a vast volume, not a dense bridge of nearby boulders.", "scene_assumptions": "Charcoal humanoid with backward head fins in a seiza with separate open hands on thighs. Obsidian plain beside a painted lava-rock shelter. The moon and its stability are unverified. Ground, warrior, cave art, exposed survival and local weather are invented. Stellar scale, visible prominence, reddish exposure, rendered individual debris pieces and simultaneous star visibility are exaggerated. This serene pose does not imply benign irradiation or a habitable climate.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · AU Mic b · saved composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/AU%20Mic%20b" }, { "text": "[2] NASA · TESS and Spitzer discover a world orbiting AU Microscopii", "url": "https://www.nasa.gov/universe/nasas-tess-spitzer-missions-discover-a-world-orbiting-a-unique-young-star/" }, { "text": "Plavchan et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020Natur.582..497P/abstract" }, { "text": "Mallorquín et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...689A.132M/abstract" }, { "text": "Wittrock et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023AJ....166..232W/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 4.79, "plus": 0.29, "minus": -0.29, "limit": 0, "source": { "text": "Mallorquín et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...689A.132M/abstract" } }, "pl_bmasse": { "v": 8.99, "plus": 2.61, "minus": -2.67, "limit": 0, "source": { "text": "Mallorquín et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...689A.132M/abstract" } }, "pl_dens": { "v": 0.49, "plus": 0.16, "minus": -0.16, "limit": 0, "source": { "text": "Mallorquín et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...689A.132M/abstract" } }, "pl_orbper": { "v": 8.463446, "plus": 5e-06, "minus": -5e-06, "limit": 0, "source": { "text": "Mallorquín et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...689A.132M/abstract" } }, "pl_orbsmax": { "v": 0.07, "plus": 0.006, "minus": -0.007, "limit": 0, "source": { "text": "Mallorquín et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...689A.132M/abstract" } }, "pl_orbeccen": { "v": 0.07, "plus": 0.09, "minus": -0.04, "limit": 0, "source": { "text": "Mallorquín et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...689A.132M/abstract" } }, "pl_orbincl": { "v": 88.39, "plus": 0.2, "minus": -0.23, "limit": 0, "source": { "text": "Mallorquín et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...689A.132M/abstract" } }, "pl_insol": { "v": 21.2, "plus": 2.5, "minus": -2.4, "limit": 0, "source": { "text": "Wittrock et al. 2023", "url": "https://ui.adsabs.harvard.edu/abs/2023AJ....166..232W/abstract" } }, "pl_eqt": { "v": 554.8, "plus": 31.6, "minus": -32.0, "limit": 0, "source": { "text": "Mallorquín et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...689A.132M/abstract" } }, "st_teff": { "v": 3540.0, "plus": 120.0, "minus": -110.0, "limit": 0, "source": { "text": "Mallorquín et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...689A.132M/abstract" } }, "st_rad": { "v": 0.862, "plus": 0.052, "minus": -0.052, "limit": 0, "source": { "text": "Mallorquín et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...689A.132M/abstract" } }, "st_mass": { "v": 0.635, "plus": 0.04, "minus": -0.07, "limit": 0, "source": { "text": "Mallorquín et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...689A.132M/abstract" } }, "st_lum": { "v": -0.97757, "plus": 0.00574, "minus": -0.00581, "limit": 0, "source": { "text": "Mallorquín et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...689A.132M/abstract" } }, "st_age": { "v": 0.019, "plus": 0.01, "minus": -0.006, "limit": 0, "source": { "text": "Mallorquín et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...689A.132M/abstract" } }, "st_met": { "v": 0.01, "plus": 0.06, "minus": -0.06, "limit": 0, "source": { "text": "Mallorquín et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024A&A...689A.132M/abstract" } }, "sy_dist": { "v": 9.7221, "plus": 0.004625, "minus": -0.004625, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "AU Mic b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series08-03-au-mic-b-red-limb-5d028e.webp", "sha256": "f4e22d38eac80d9a8dc2da9f4a29dfb56c85e3483738f21f8749e2004a295abe", "canonical_original": "World Images/warrior-series08-03-au-mic-b-red-limb.jpg", "limitations": "The moon and its stability are unverified. Ground, warrior, cave art, exposed survival and local weather are invented. Stellar scale, visible prominence, reddish exposure, rendered individual debris pieces and simultaneous star visibility are exaggerated. This serene pose does not imply benign irradiation or a habitable climate. All warriors and cultures are fictional. Peace and strength are visual themes; no character thoughts, teachings or biological cosmic-energy mechanism are supplied.", "review": "Both knees are grounded in seiza, hands rest open, and volcanic terrain remains continuous. The large spotted red star and prominence are central. The visible boulders in the dust ribbon and dense stars near glare are artistic exaggerations, not a debris-particle measurement." }, { "registry_id": "warrior-series08-04-gj-504-b-salt-garden-0a3462", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "GJ 504", "mapping_basis": "generation manifest", "filename": "warrior-series08-04-gj-504-b-salt-garden.jpg", "title": "The Cherry-Crescent Salt Garden", "planet": "GJ 504 b", "category": "Real exoplanet setting", "series": "warrior-08", "description": "descriptions/warrior-series08-04-gj-504-b-salt-garden-0a3462.html", "image": "images/warrior-series08-04-gj-504-b-salt-garden.jpg", "scientific_anchor": "GJ 504 b was detected by direct imaging. NASA's discovery visualization described a dull magenta appearance associated with retained heat, rather than Jupiter's familiar reflected-light bands. [1,2] That motivates the palette here, not a measured cloud map. Inferring mass and evolutionary state from a companion's brightness depends on age and atmospheric models; the source-linked catalog values and their uncertainty remain separate from the artwork.", "scene_assumptions": "Ivory humanoid with an elongated smooth head in a cat-inspired stance with one vertical and one upward palm. White salt basin, mineral pools and porcelain pinnacles. The foreground moon, brines, salt formations, atmosphere and being are fictional. No satellite orbit or liquid chemistry is established. The crescent illumination, brighter limb, interior glow and detailed cloud pattern are composed artistically and do not predict a naked-eye view from a known moon.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · GJ 504 b · saved composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/GJ%20504%20b" }, { "text": "[2] NASA · This gas giant is pretty in pink", "url": "https://www.nasa.gov/image-article/this-gas-giant-pretty-pink/" }, { "text": " Kuzuhara et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013ApJ...774...11K/abstract" }, { "text": "Mâlin et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...693A.315M/abstract" }, { "text": " Takeda et al. 2007", "url": "https://ui.adsabs.harvard.edu/abs/2007ApJS..168..297T/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 12.10569916, "plus": 0.44835923, "minus": -0.33626942, "limit": 0, "source": { "text": "Mâlin et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025A&A...693A.315M/abstract" } }, "pl_bmasse": { "v": 1271.3, "plus": 1430.2, "minus": -317.8, "limit": 0, "source": { "text": " Kuzuhara et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013ApJ...774...11K/abstract" } }, "pl_dens": { "v": 3.94, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_orbsmax": { "v": 43.5, "plus": null, "minus": null, "limit": 0, "source": { "text": " Kuzuhara et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013ApJ...774...11K/abstract" } }, "pl_orbeccen": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_orbincl": { "v": null, "plus": null, "minus": null, "limit": null, "source": null }, "pl_insol": { "v": 0.0011, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 510.0, "plus": 30.0, "minus": -20.0, "limit": 0, "source": { "text": " Kuzuhara et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013ApJ...774...11K/abstract" } }, "st_teff": { "v": 6234.0, "plus": 25.0, "minus": -25.0, "limit": 0, "source": { "text": " Kuzuhara et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013ApJ...774...11K/abstract" } }, "st_rad": { "v": 1.26, "plus": 0.03, "minus": -0.04, "limit": 0, "source": { "text": " Takeda et al. 2007", "url": "https://ui.adsabs.harvard.edu/abs/2007ApJS..168..297T/abstract" } }, "st_mass": { "v": 1.22, "plus": 0.08, "minus": -0.08, "limit": 0, "source": { "text": " Kuzuhara et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013ApJ...774...11K/abstract" } }, "st_lum": { "v": 0.332, "plus": 0.032, "minus": -0.032, "limit": 0, "source": { "text": " Kuzuhara et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013ApJ...774...11K/abstract" } }, "st_age": { "v": 0.16, "plus": 0.35, "minus": -0.06, "limit": 0, "source": { "text": " Kuzuhara et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013ApJ...774...11K/abstract" } }, "st_met": { "v": 0.28, "plus": 0.03, "minus": -0.03, "limit": 0, "source": { "text": " Kuzuhara et al. 2013 ", "url": "https://ui.adsabs.harvard.edu/abs/2013ApJ...774...11K/abstract" } }, "sy_dist": { "v": 17.5299, "plus": 0.0785, "minus": -0.0778, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "GJ 504 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series08-04-gj-504-b-salt-garden-0a3462.webp", "sha256": "6da3bf836093443173ff8d83ee0d8e9e0053b77c599b4175edd6601782c6b046", "canonical_original": "World Images/warrior-series08-04-gj-504-b-salt-garden.jpg", "limitations": "The foreground moon, brines, salt formations, atmosphere and being are fictional. No satellite orbit or liquid chemistry is established. The crescent illumination, brighter limb, interior glow and detailed cloud pattern are composed artistically and do not predict a naked-eye view from a known moon. All warriors and cultures are fictional. Peace and strength are visual themes; no character thoughts, teachings or biological cosmic-energy mechanism are supplied.", "review": "The small full-body alien holds a distinct asymmetrical open-handed stance against white salt terrain. A magenta crescent and softly glowing darker hemisphere dominate the sky; the phase and self-emission are artistic." }, { "registry_id": "warrior-series08-05-kepler-90-h-occultation-basin-4c9c4e", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "KOI-351", "mapping_basis": "generation manifest", "filename": "warrior-series08-05-kepler-90-h-occultation-basin.jpg", "title": "The Occultation Basin", "planet": "KOI-351 h", "category": "Real exoplanet setting", "series": "warrior-08", "description": "descriptions/warrior-series08-05-kepler-90-h-occultation-basin-4c9c4e.html", "image": "images/warrior-series08-05-kepler-90-h-occultation-basin.jpg", "scientific_anchor": "Kepler-90 contains eight catalogued transiting planets. Its outer giant Kepler-90 h is listed as KOI-351 h in this project's saved NASA catalog, so the assignment uses that exact identifier. [1,2] The image invents a moon from which the parent giant crosses the host star. An occultation can hide a stellar photosphere; the depicted small bead at the planetary limb represents emergence. Neither this moon nor this event has been observed.", "scene_assumptions": "Tawny humanoid with flat cranial plates in a cross-legged seat with arms forming an overhead oval. Terraced limestone basin with shallow mineral channels. The satellite, orbit, limestone terraces, pools, atmosphere and warrior are invented. The giant's angular diameter, occultation timing, illuminated rim and exposure are not calculated from a dynamical model. The small star emerging at the limb is an artistic configuration; this is not a forecast of an eclipse.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · KOI-351 h · saved composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/KOI-351%20h" }, { "text": "[2] NASA · Discovery of eight planets in Kepler-90", "url": "https://science.nasa.gov/universe/exoplanets/discovery-of-eight-planets-makes-alien-system-the-first-to-tie-with-our-solar-system/" }, { "text": " Cabrera et al. 2014 ", "url": "https://ui.adsabs.harvard.edu/abs/2014ApJ...781...18C/abstract" }, { "text": "Weiss et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJS..270....8W/abstract" }, { "text": "Shaw et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025AJ....170..146S/abstract" }, { "text": "Fulton & Petigura 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018AJ....156..264F/abstract" }, { "text": "Liang et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161..202L/abstract" }, { "text": "Berger et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018ApJ...866...99B/abstract" }, { "text": "Q1-Q17 DR25 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" }, { "text": "Gajdoš et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019RAA....19...41G/abstract" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 11.252, "plus": 0.306, "minus": -0.306, "limit": 0, "source": { "text": "Weiss et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJS..270....8W/abstract" } }, "pl_bmasse": { "v": 203.0, "plus": 16.0, "minus": -16.0, "limit": 0, "source": { "text": "Shaw et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025AJ....170..146S/abstract" } }, "pl_dens": { "v": 0.911829, "plus": 0.136278, "minus": -0.136278, "limit": 0, "source": { "text": "Weiss et al. 2024", "url": "https://ui.adsabs.harvard.edu/abs/2024ApJS..270....8W/abstract" } }, "pl_orbper": { "v": 331.60296, "plus": 0.00034, "minus": -0.00034, "limit": 0, "source": { "text": "Shaw et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025AJ....170..146S/abstract" } }, "pl_orbsmax": { "v": 0.97062, "plus": 0.00986, "minus": -0.00986, "limit": 0, "source": { "text": "Fulton & Petigura 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018AJ....156..264F/abstract" } }, "pl_orbeccen": { "v": 0.0276, "plus": 0.0031, "minus": -0.0031, "limit": 0, "source": { "text": "Shaw et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025AJ....170..146S/abstract" } }, "pl_orbincl": { "v": 89.927, "plus": 0.011, "minus": -0.007, "limit": 0, "source": { "text": "Liang et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021AJ....161..202L/abstract" } }, "pl_insol": { "v": 1.849, "plus": 0.063, "minus": -0.061, "limit": 0, "source": { "text": "Berger et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018ApJ...866...99B/abstract" } }, "pl_eqt": { "v": 294.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Q1-Q17 DR25 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" } }, "st_teff": { "v": 6031.13, "plus": 34.68, "minus": -34.68, "limit": 0, "source": { "text": "Gajdoš et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019RAA....19...41G/abstract" } }, "st_rad": { "v": 1.185, "plus": 0.031, "minus": -0.03, "limit": 0, "source": { "text": "Fulton & Petigura 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018AJ....156..264F/abstract" } }, "st_mass": { "v": 1.242, "plus": 0.096, "minus": -0.097, "limit": 0, "source": { "text": "Shaw et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025AJ....170..146S/abstract" } }, "st_lum": { "v": 0.26853, "plus": null, "minus": null, "limit": 0, "source": { "text": "Gajdoš et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019RAA....19...41G/abstract" } }, "st_age": { "v": 0.53, "plus": 0.88, "minus": -0.88, "limit": 0, "source": { "text": "Q1-Q8 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" } }, "st_met": { "v": 0.083, "plus": 0.033, "minus": -0.033, "limit": 0, "source": { "text": "Gajdoš et al. 2019", "url": "https://ui.adsabs.harvard.edu/abs/2019RAA....19...41G/abstract" } }, "sy_dist": { "v": 848.254, "plus": 10.8185, "minus": -10.8185, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "KOI-351 h", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-series08-05-kepler-90-h-occultation-basin-4c9c4e.webp", "sha256": "bdf61f352787dc6948a75836ad31f7e3c2b17080a915fa085bdd82af52214a3a", "canonical_original": "World Images/warrior-series08-05-kepler-90-h-occultation-basin.jpg", "limitations": "The satellite, orbit, limestone terraces, pools, atmosphere and warrior are invented. The giant's angular diameter, occultation timing, illuminated rim and exposure are not calculated from a dynamical model. The small star emerging at the limb is an artistic configuration; this is not a forecast of an eclipse. All warriors and cultures are fictional. Peace and strength are visual themes; no character thoughts, teachings or biological cosmic-energy mechanism are supplied.", "review": "Seated crossed legs and an overhead arm oval are fully readable. The black parent disk and localized emerging stellar bead are visible over grounded limestone terraces. Upper disk is cropped by the sky edge; astronomy remains central." }, { "registry_id": "warrior-series08-06-aster-vale-helix-garden-5eb687", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": null, "mapping_basis": "generation manifest", "filename": "warrior-series08-06-aster-vale-helix-garden.jpg", "title": "The Helix Garden", "planet": null, "category": "Fiction / unidentified archival setting", "series": "warrior-08", "description": "descriptions/warrior-series08-06-aster-vale-helix-garden-5eb687.html", "image": "images/warrior-series08-06-aster-vale-helix-garden.jpg", "scientific_anchor": "The Helix Nebula, NGC 7293, is a planetary nebula: gas expelled late in the life of a Sun-like star, illuminated by its hot remnant. The term does not mean that the nebula is a planet. Images reveal structured shells and small dense knots rather than a solid luminous ring. [1] Aster Vale is a fictional neighboring world; no real host or exoplanet is assigned.", "scene_assumptions": "Green-and-umber humanoid with a backward crest in a half-kneel with one hand on knee and one near sternum. Moss garden, jade steps and a quiet brook. The local planet, star, viewing distance, garden, brook, atmosphere, life and artwork are invented. The nebula's angular extent, color intensity, projection and foreground illumination are artistically enhanced. These are not naked-eye exposure predictions or evidence of a habitable nearby world.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] ESA/Hubble · Eye-catching celestial helix", "url": "https://esahubble.org/news/heic0307/" } ], "measurements": null, "original_context": [], "setting_name": "Aster Vale · fictional world near the Helix Nebula", "galaxy": null, "fictional_world": "Aster Vale · fictional world near the Helix Nebula", "preview": "assets/images/warrior-series08-06-aster-vale-helix-garden-5eb687.webp", "sha256": "9e3aaf948069a59003dc258ed34a37c5b99b49e3283e25ddd0e5441b00ffb01d", "canonical_original": "World Images/warrior-series08-06-aster-vale-helix-garden.jpg", "limitations": "The local planet, star, viewing distance, garden, brook, atmosphere, life and artwork are invented. The nebula's angular extent, color intensity, projection and foreground illumination are artistically enhanced. These are not naked-eye exposure predictions or evidence of a habitable nearby world. All warriors and cultures are fictional. Peace and strength are visual themes; no character thoughts, teachings or biological cosmic-energy mechanism are supplied.", "review": "A small half-kneeling warrior, tangible mossy terrain and jade relief are visible. A diffuse cyan and rust gas shell dominates the sky. It is an enhanced Helix-inspired view, not an observed planetary panorama." }, { "registry_id": "warrior-series08-07-nacre-whirlpool-shore-d6d4f0", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": null, "mapping_basis": "generation manifest", "filename": "warrior-series08-07-nacre-whirlpool-shore.jpg", "title": "The Whirlpool Shore", "planet": null, "category": "Fiction / unidentified archival setting", "series": "warrior-08", "description": "descriptions/warrior-series08-07-nacre-whirlpool-shore-d6d4f0.html", "image": "images/warrior-series08-07-nacre-whirlpool-shore.jpg", "scientific_anchor": "M51, the Whirlpool Galaxy, has a prominent pair of spiral arms containing stars, gas and dark dust lanes. Its compact companion NGC 5195 participates in the interaction that shapes the system. Hubble resolves blue young stellar populations, pink emission regions and a warmer central stellar concentration. [1] The broad external view is imagined from Nacre, a world near the system's outer halo, not from Earth or a mapped Milky Way exoplanet.", "scene_assumptions": "Blue-grey humanoid with folded head fins in a long forward stance with an open vertical palm. Basalt tidal shore and pearlescent mineral terraces. Nacre, its local star, orbit, ocean, flora, atmosphere and warrior are invented. Galaxy inclination, apparent size, individual arms, sky brightness and scene exposure are illustrative. No confirmed exoplanet assignment or exact perspective reconstruction is claimed.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] ESA/Hubble · The Whirlpool Galaxy and its companion", "url": "https://esahubble.org/images/heic0506a/" } ], "measurements": null, "original_context": [], "setting_name": "Nacre · fictional world in the outer halo near M51", "galaxy": null, "fictional_world": "Nacre · fictional world in the outer halo near M51", "preview": "assets/images/warrior-series08-07-nacre-whirlpool-shore-d6d4f0.webp", "sha256": "37c4d7309dfd09a1dffc03352c2e8f9e40cefb2983bee8bbf7a67dbc43582840", "canonical_original": "World Images/warrior-series08-07-nacre-whirlpool-shore.jpg", "limitations": "Nacre, its local star, orbit, ocean, flora, atmosphere and warrior are invented. Galaxy inclination, apparent size, individual arms, sky brightness and scene exposure are illustrative. No confirmed exoplanet assignment or exact perspective reconstruction is claimed. All warriors and cultures are fictional. Peace and strength are visual themes; no character thoughts, teachings or biological cosmic-energy mechanism are supplied.", "review": "A complete forward stance rests on wet shoreline rock; no floating viewpoint. Spiral arms, dust lanes and a smaller galaxy companion dominate above the sea. Foreground art is physically carved at right." }, { "registry_id": "warrior-series08-08-sere-veil-steppe-a6f182", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": null, "mapping_basis": "generation manifest", "filename": "warrior-series08-08-sere-veil-steppe.jpg", "title": "The Veil over the Amber Steppe", "planet": null, "category": "Fiction / unidentified archival setting", "series": "warrior-08", "description": "descriptions/warrior-series08-08-sere-veil-steppe-a6f182.html", "image": "images/warrior-series08-08-sere-veil-steppe.jpg", "scientific_anchor": "The Veil Nebula is part of the Cygnus Loop supernova remnant. Its narrow filaments trace shocked gas where expanding material encounters its surroundings; edge-on folds can appear especially bright. [1] The red and cyan lace in the image draws on that observed filamentary structure. It is not an aurora in the local atmosphere or a current explosion over the landscape.", "scene_assumptions": "Copper-brown humanoid with a textured scalp in a standing inward fold with open hands on opposite shoulders. Amber steppe and a honeycombed rock shelter. Sere, its host star, location, atmosphere, vegetation, shelter and being are fictional. Remnant projection, color, angular scale and brightness have been enhanced for the composition. No claims are made about a real nearby planet's survival, radiation environment or habitability.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA/Hubble · Uncovering the Veil Nebula", "url": "https://science.nasa.gov/missions/hubble/uncovering-the-veil-nebula/" } ], "measurements": null, "original_context": [], "setting_name": "Sere · fictional world with a view toward the Cygnus Loop", "galaxy": null, "fictional_world": "Sere · fictional world with a view toward the Cygnus Loop", "preview": "assets/images/warrior-series08-08-sere-veil-steppe-a6f182.webp", "sha256": "eb78437b6c650ef233d16ca7394947c09dd8062605b3eb8ba4abedf6d445933f", "canonical_original": "World Images/warrior-series08-08-sere-veil-steppe.jpg", "limitations": "Sere, its host star, location, atmosphere, vegetation, shelter and being are fictional. Remnant projection, color, angular scale and brightness have been enhanced for the composition. No claims are made about a real nearby planet's survival, radiation environment or habitability. All warriors and cultures are fictional. Peace and strength are visual themes; no character thoughts, teachings or biological cosmic-energy mechanism are supplied.", "review": "Full standing posture, hands at opposite shoulders and ground contact are visible. Widely separated cyan-red filaments distinguish the sky from the Helix shell. Warm steppe and painted shelter provide a distinct setting." }, { "registry_id": "warrior-series08-09-ilyra-two-tailed-visitor-3bbf7c", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": null, "mapping_basis": "generation manifest", "filename": "warrior-series08-09-ilyra-two-tailed-visitor.jpg", "title": "The Two-Tailed Visitor", "planet": null, "category": "Fiction / unidentified archival setting", "series": "warrior-08", "description": "descriptions/warrior-series08-09-ilyra-two-tailed-visitor-3bbf7c.html", "image": "images/warrior-series08-09-ilyra-two-tailed-visitor.jpg", "scientific_anchor": "Comets release gas and dust as heating drives volatile loss. Dust scatters starlight and can form a broad curved tail, while ionized gas responds to the stellar wind and magnetic environment, often making a straighter tail directed away from the star. NASA observations of NEOWISE illustrate these distinct structures. [1] Ilyra's visitor is a fictional extrasolar comet, not NEOWISE transported to another world.", "scene_assumptions": "Mauve humanoid with ridged temples in a low side lunge with one open hand extended. Celadon wetlands, violet reeds and distant waterfalls. The world, comet, orbit, viewing date, atmosphere, wetland, vegetation and warrior are invented. The two-tail morphology uses real comet physics as a visual reference, while size, brightness, colors and geometry are artistic. No catalog properties or real exoplanet assignment are supplied.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA · Parker Solar Probe resolves the dust and ion tails of NEOWISE", "url": "https://www.nasa.gov/science-research/heliophysics/nasas-parker-solar-probe-spies-newly-discovered-comet-neowise/" } ], "measurements": null, "original_context": [], "setting_name": "Ilyra · fictional wetland world and local comet", "galaxy": null, "fictional_world": "Ilyra · fictional wetland world and local comet", "preview": "assets/images/warrior-series08-09-ilyra-two-tailed-visitor-3bbf7c.webp", "sha256": "33b8197a29abd9cc5c6dd4f4c200f965e611e922a3fa7249b97d50571350a6cf", "canonical_original": "World Images/warrior-series08-09-ilyra-two-tailed-visitor.jpg", "limitations": "The world, comet, orbit, viewing date, atmosphere, wetland, vegetation and warrior are invented. The two-tail morphology uses real comet physics as a visual reference, while size, brightness, colors and geometry are artistic. No catalog properties or real exoplanet assignment are supplied. All warriors and cultures are fictional. Peace and strength are visual themes; no character thoughts, teachings or biological cosmic-energy mechanism are supplied.", "review": "The full side-lunge pose, both feet and grounded path are visible. A compact coma has a broad curved dust fan and a thinner straighter ion tail; both extend away from the lower-right twilight. No impact or falling debris." }, { "registry_id": "warrior-series08-10-thal-auroral-balance-9ab9c0", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": null, "mapping_basis": "generation manifest", "filename": "warrior-series08-10-thal-auroral-balance.jpg", "title": "The Auroral Balance", "planet": null, "category": "Fiction / unidentified archival setting", "series": "warrior-08", "description": "descriptions/warrior-series08-10-thal-auroral-balance-9ab9c0.html", "image": "images/warrior-series08-10-thal-auroral-balance.jpg", "scientific_anchor": "Auroral light is emitted when energetic particles excite gases in an upper atmosphere. At Earth, oxygen can produce green or red emission, while nitrogen contributes blue and pink hues; colors depend on the transitions, particle energies and altitude. [1] Thal's curtains borrow this terrestrial physical analogy. The image is not evidence for an extrasolar magnetic field or an oxygen-rich atmosphere.", "scene_assumptions": "Silver humanoid with short backward ridges in a one-leg balance with raised knee and unequal open arm arcs. Serpentine mountain ridge with embedded mineral crystals. Thal, its star, magnetic field, atmospheric composition, aurora, mineral formations, life and culture are fictional. Colors and brightness are composed for the scene, not inferred from a detection. The warrior's alignment with the sky is artistic; no biological energy transfer is asserted.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Science · Auroras and atmospheric emission colors", "url": "https://science.nasa.gov/sun/auroras/" } ], "measurements": null, "original_context": [], "setting_name": "Thal · fictional magnetized mountain world", "galaxy": null, "fictional_world": "Thal · fictional magnetized mountain world", "preview": "assets/images/warrior-series08-10-thal-auroral-balance-9ab9c0.webp", "sha256": "5565696156134146022bcc188f3483abd827a324935c823b35f27e922eba11e9", "canonical_original": "World Images/warrior-series08-10-thal-auroral-balance.jpg", "limitations": "Thal, its star, magnetic field, atmospheric composition, aurora, mineral formations, life and culture are fictional. Colors and brightness are composed for the scene, not inferred from a detection. The warrior's alignment with the sky is artistic; no biological energy transfer is asserted. All warriors and cultures are fictional. Peace and strength are visual themes; no character thoughts, teachings or biological cosmic-energy mechanism are supplied.", "review": "Raised knee, strong planted support leg and two open hands are visible. Continuous mountain terrain and embedded crystals establish solid ground. Folded auroral curtains fill the sky without rays connected to the figure." }, { "registry_id": "warrior-series11-01-eshara-the-confluence-9ecd6d", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": null, "mapping_basis": "generation manifest", "filename": "warrior-series11-01-eshara-the-confluence.jpg", "title": "The Confluence", "planet": null, "category": "Fiction / unidentified archival setting", "series": "warrior-11", "description": "descriptions/warrior-series11-01-eshara-the-confluence-9ecd6d.html", "image": "images/warrior-series11-01-eshara-the-confluence.jpg", "scientific_anchor": "Mutual gravity can stretch galaxies into tidal tails and bridges while compressing gas into star-forming regions. The Antennae provide an observed example of this process; direct collisions between individual stars are much rarer than encounters between gas clouds. [1] This scene uses an invented external viewpoint to show two distinct nuclei and connected distorted arms.", "scene_assumptions": "Silver-skinned humanoid with swept cranial ridges in rear three-quarter cross-legged meditation, hands held before the lower abdomen. Solid granite overlook among rugged mountains and deep glacial valleys. Eshara and its inhabitants are invented. The Antennae are a morphological reference, not a host assignment or a reconstruction of their present appearance. A galaxy pair spanning roughly 100,000 light-years at 150,000 light-years would span about 37 degrees; those are illustrative scale choices, not measured parameters for this world. Diffuse galaxy detail is presented with long-exposure photographic sensitivity; moving closer does not by itself increase surface brightness.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] ESA/Hubble · Interacting Antennae galaxies", "url": "https://esahubble.org/images/heic0615a/" } ], "measurements": null, "original_context": [], "setting_name": "Eshara · fictional world", "galaxy": null, "fictional_world": "Eshara", "preview": "assets/images/warrior-series11-01-eshara-the-confluence-9ecd6d.webp", "sha256": "76877519d55a30f9e0fb7776728366c2fb2e9bebf8a05b19b82b1e6211883536", "canonical_original": "World Images/warrior-series11-01-eshara-the-confluence.jpg", "limitations": "Eshara and its inhabitants are invented. The Antennae are a morphological reference, not a host assignment or a reconstruction of their present appearance. A galaxy pair spanning roughly 100,000 light-years at 150,000 light-years would span about 37 degrees; those are illustrative scale choices, not measured parameters for this world. Diffuse galaxy detail is presented with long-exposure photographic sensitivity; moving closer does not by itself increase surface brightness. All beings and cultures are fictional. Martial forms are artistic poses, not instructional diagrams. Character narratives and teachings remain the author's work.", "review": "Two external galaxy nuclei, distorted arms and a bridge dominate the upper sky. The fully seated warrior is approximately 22% of frame height; ground, mountain depth and physical relief remain clear." }, { "registry_id": "warrior-series11-02-vhar-the-obsidian-vigil-b6a387", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": null, "mapping_basis": "generation manifest", "filename": "warrior-series11-02-vhar-the-obsidian-vigil.jpg", "title": "The Obsidian Vigil", "planet": null, "category": "Fiction / unidentified archival setting", "series": "warrior-11", "description": "descriptions/warrior-series11-02-vhar-the-obsidian-vigil-b6a387.html", "image": "images/warrior-series11-02-vhar-the-obsidian-vigil.jpg", "scientific_anchor": "A black hole does not shine from within its event horizon. Heated orbiting gas supplies the light, and strong gravity bends the far side of an accretion disk into arcs above and below the shadow. Orbital motion can make one side brighter. [1] The illustration separates the dark shadow from the wider luminous disk.", "scene_assumptions": "Ancient dark-lord-like humanoid alien with a horned bone-white skull and black martial robes in low rooted horse stance, hands held calmly together before the lower abdomen. Solid basalt above a broad volcanic plain with distant lava rivers. Vhar, the black hole, its mass, the surface and the warrior are hypothetical. An illustrative nonrotating black hole of one billion solar masses has a Schwarzschild radius of about 19.7 AU; at 50 such radii the shadow diameter is of order six degrees. This motivates a compact shadow inside a broader disk, without assigning the scene to a real system. No full relativistic ray trace, accretion luminosity, atmospheric retention, surface energy balance or biological viability has been solved. Lava does not establish the cause of heating.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA · Visualization of a black hole's warped world", "url": "https://www.nasa.gov/universe/nasa-visualization-shows-a-black-holes-warped-world/" } ], "measurements": null, "original_context": [], "setting_name": "Vhar · fictional world", "galaxy": null, "fictional_world": "Vhar", "preview": "assets/images/warrior-series11-02-vhar-the-obsidian-vigil-b6a387.webp", "sha256": "c4c04fff07e113189c5a4e3e36fd180ccb4451eb996d666d734404e48d7e36db", "canonical_original": "World Images/warrior-series11-02-vhar-the-obsidian-vigil.jpg", "limitations": "Vhar, the black hole, its mass, the surface and the warrior are hypothetical. An illustrative nonrotating black hole of one billion solar masses has a Schwarzschild radius of about 19.7 AU; at 50 such radii the shadow diameter is of order six degrees. This motivates a compact shadow inside a broader disk, without assigning the scene to a real system. No full relativistic ray trace, accretion luminosity, atmospheric retention, surface energy balance or biological viability has been solved. Lava does not establish the cause of heating. All beings and cultures are fictional. Martial forms are artistic poses, not instructional diagrams. Character narratives and teachings remain the author's work.", "review": "Selected revision reduces the warrior to approximately 17% of frame height and makes the low horse stance clear. The compact shadow and broad warped disk dominate a continuous volcanic landscape." }, { "registry_id": "warrior-series11-03-lethen-the-field-of-stars-328696", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": null, "mapping_basis": "generation manifest", "filename": "warrior-series11-03-lethen-the-field-of-stars.jpg", "title": "The Field of Stars", "planet": null, "category": "Fiction / unidentified archival setting", "series": "warrior-11", "description": "descriptions/warrior-series11-03-lethen-the-field-of-stars-328696.html", "image": "images/warrior-series11-03-lethen-the-field-of-stars.jpg", "scientific_anchor": "Globular clusters contain densely packed, gravitationally bound stellar populations, with projected star counts increasing toward their centers. Omega Centauri provides a rich observed reference with stars of different colors and evolutionary stages. [1] The image emphasizes separate stellar points rather than spiral arms or luminous gas.", "scene_assumptions": "Slate-blue humanoid alien with a compact fan-shaped crest in seiza meditation with one vertical palm and one resting hand. Rolling grassy hillside above a quiet winding stream at night. Lethen is an invented world, not a detected planet in Omega Centauri. The cluster is inspired by observed morphology. For scale, an illustrative 150-light-year extent at 570 light-years spans about 15 degrees; this is an exterior viewing example, not a catalog location. Moonlike off-frame illumination and long-exposure sensitivity account for visible grass and faint stars; the vegetation, atmosphere and culture are fictional.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA/Hubble · Omega Centauri", "url": "https://science.nasa.gov/asset/hubble/omega-centauri-2/" } ], "measurements": null, "original_context": [], "setting_name": "Lethen · fictional world", "galaxy": null, "fictional_world": "Lethen", "preview": "assets/images/warrior-series11-03-lethen-the-field-of-stars-328696.webp", "sha256": "bc8be741edda53188d449fec8228faabcb6176c68a8461bca09fedf16a1f933f", "canonical_original": "World Images/warrior-series11-03-lethen-the-field-of-stars.jpg", "limitations": "Lethen is an invented world, not a detected planet in Omega Centauri. The cluster is inspired by observed morphology. For scale, an illustrative 150-light-year extent at 570 light-years spans about 15 degrees; this is an exterior viewing example, not a catalog location. Moonlike off-frame illumination and long-exposure sensitivity account for visible grass and faint stars; the vegetation, atmosphere and culture are fictional. All beings and cultures are fictional. Martial forms are artistic poses, not instructional diagrams. Character narratives and teachings remain the author's work.", "review": "A rounded stellar concentration with resolved points leads the sky. The kneeling figure is approximately 23% of frame height, with a clear vertical palm and complete grounded seat." }, { "registry_id": "warrior-series11-04-olara-the-garden-of-rings-6ce4b1", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": null, "mapping_basis": "generation manifest", "filename": "warrior-series11-04-olara-the-garden-of-rings.jpg", "title": "The Garden of Rings", "planet": null, "category": "Fiction / unidentified archival setting", "series": "warrior-11", "description": "descriptions/warrior-series11-04-olara-the-garden-of-rings-6ce4b1.html", "image": "images/warrior-series11-04-olara-the-garden-of-rings.jpg", "scientific_anchor": "Planetary rings consist of numerous orbiting particles rather than a rigid solid sheet. Saturn demonstrates how ring divisions, viewing angle and shadows structure the appearance of a ring system. [1] A daytime view from a moon would also be filtered by atmospheric scattering, reducing contrast and suppressing background stars.", "scene_assumptions": "Smooth jade-grey amphiboid alien with neck gills and ivory-teal training wraps in balanced one-leg crane stance with open palms. Green meadow on an invented solid moon above a turquoise lake and limestone hills. Olara, its ringed parent giant and their environment are fictional; neither has a real planet or host assignment. A satellite at 12 parent radii would see the parent span about 9.6 degrees, while rings extending to 2.5 radii could span about 24 degrees along their major axis. These illustrative dimensions motivate the composition; orbital inclination, long-term stability and climate remain unspecified. Greenery is imagined biology.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Science · Saturn facts and rings", "url": "https://science.nasa.gov/saturn/facts/" } ], "measurements": null, "original_context": [], "setting_name": "Olara · fictional moon", "galaxy": null, "fictional_world": "Olara", "preview": "assets/images/warrior-series11-04-olara-the-garden-of-rings-6ce4b1.webp", "sha256": "91b3b83132290f5ae7e58e328baf33b65e9383c76f5b3b2f420bf469583213e4", "canonical_original": "World Images/warrior-series11-04-olara-the-garden-of-rings.jpg", "limitations": "Olara, its ringed parent giant and their environment are fictional; neither has a real planet or host assignment. A satellite at 12 parent radii would see the parent span about 9.6 degrees, while rings extending to 2.5 radii could span about 24 degrees along their major axis. These illustrative dimensions motivate the composition; orbital inclination, long-term stability and climate remain unspecified. Greenery is imagined biology. All beings and cultures are fictional. Martial forms are artistic poses, not instructional diagrams. Character narratives and teachings remain the author's work.", "review": "Selected revision pulls the complete crane-stance figure back to approximately 18% of frame height. The whole ring silhouette remains visible in a star-free blue daytime sky above extensive green terrain." }, { "registry_id": "warrior-series11-05-sael-the-silence-of-totality-766f94", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": null, "mapping_basis": "generation manifest", "filename": "warrior-series11-05-sael-the-silence-of-totality.jpg", "title": "The Silence of Totality", "planet": null, "category": "Fiction / unidentified archival setting", "series": "warrior-11", "description": "descriptions/warrior-series11-05-sael-the-silence-of-totality-766f94.html", "image": "images/warrior-series11-05-sael-the-silence-of-totality.jpg", "scientific_anchor": "A total eclipse occurs when an intervening body covers the stellar photosphere from the observer's location. The much fainter outer atmosphere, or corona, then becomes visible, while scattered light can leave a brighter horizon. [1] Totality is a geometric alignment rather than a change in the star's actual power.", "scene_assumptions": "Terracotta-skinned muscular alien with a flattened cranium and small cheek tusks in deep side lunge with upright torso and palms together. Crystalline salt basin and shallow reflective pools. Sael, its star and occulting moon are fictional. A solar-radius star at about 0.89 AU has an angular diameter near 0.6 degrees; this simple geometric example sets the intended small disk, not a measured orbital solution. The eclipse was reduced after visual review to preserve wide-view scale. No eclipse duration or local weather prediction is claimed.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Science · Types of eclipses", "url": "https://science.nasa.gov/eclipses/types/" } ], "measurements": null, "original_context": [], "setting_name": "Sael · fictional world", "galaxy": null, "fictional_world": "Sael", "preview": "assets/images/warrior-series11-05-sael-the-silence-of-totality-766f94.webp", "sha256": "aa97f76ccefca07e0bf17c31cbcbf7db8735b4b9c702b1477cbc13d10b0f0d02", "canonical_original": "World Images/warrior-series11-05-sael-the-silence-of-totality.jpg", "limitations": "Sael, its star and occulting moon are fictional. A solar-radius star at about 0.89 AU has an angular diameter near 0.6 degrees; this simple geometric example sets the intended small disk, not a measured orbital solution. The eclipse was reduced after visual review to preserve wide-view scale. No eclipse duration or local weather prediction is claimed. All beings and cultures are fictional. Martial forms are artistic poses, not instructional diagrams. Character narratives and teachings remain the author's work.", "review": "Selected revision reduces the black eclipse disk and its corona substantially while retaining the panoramic salt basin and clear meditative side lunge. Figure is approximately 21% of image height." }, { "registry_id": "warrior-series11-06-thoren-the-two-sun-shore-b581a8", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": null, "mapping_basis": "generation manifest", "filename": "warrior-series11-06-thoren-the-two-sun-shore.jpg", "title": "The Two-Sun Shore", "planet": null, "category": "Fiction / unidentified archival setting", "series": "warrior-11", "description": "descriptions/warrior-series11-06-thoren-the-two-sun-shore-b581a8.html", "image": "images/warrior-series11-06-thoren-the-two-sun-shore.jpg", "scientific_anchor": "A binary contains two stars orbiting their common center of mass. Circumbinary planets orbit the pair, so a surface observer could see two luminous sources with changing apparent separation. [1] Relative stellar radii, temperatures and distances govern disk sizes, colors and the strengths of their separate illumination patterns.", "scene_assumptions": "Bronze-chitin arthropod alien with four arms and two legs in four-armed circular meditative guard in a grounded half-squat. Grounded basalt tide pools and open ocean coast. Thoren and the binary are invented and have no catalog host. Illustrative radii of 1 and 0.5 solar radii at 0.89 AU give angular diameters of roughly 0.6 and 0.3 degrees; a projected separation of 0.039 AU gives about 2.5 degrees. These guide the compact suns without claiming an orbital fit. Atmospheric glare broadens their rendered appearance. The coast, liquid and alien anatomy are fictional.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Science · Multiple star systems", "url": "https://science.nasa.gov/universe/stars/multiple-star-systems/" } ], "measurements": null, "original_context": [], "setting_name": "Thoren · fictional world", "galaxy": null, "fictional_world": "Thoren", "preview": "assets/images/warrior-series11-06-thoren-the-two-sun-shore-b581a8.webp", "sha256": "1dd2c5cf63373dfc954fd095c5d0eb83dc8547c675f98953eed50610d7cea4da", "canonical_original": "World Images/warrior-series11-06-thoren-the-two-sun-shore.jpg", "limitations": "Thoren and the binary are invented and have no catalog host. Illustrative radii of 1 and 0.5 solar radii at 0.89 AU give angular diameters of roughly 0.6 and 0.3 degrees; a projected separation of 0.039 AU gives about 2.5 degrees. These guide the compact suns without claiming an orbital fit. Atmospheric glare broadens their rendered appearance. The coast, liquid and alien anatomy are fictional. All beings and cultures are fictional. Martial forms are artistic poses, not instructional diagrams. Character narratives and teachings remain the author's work.", "review": "Two separate small suns and reflection paths are visible. Four arms form a coherent circular guard; the full figure is approximately 24% of frame height within extensive coast and open sky." }, { "registry_id": "warrior-series11-07-ivara-the-long-visitor-755ef3", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": null, "mapping_basis": "generation manifest", "filename": "warrior-series11-07-ivara-the-long-visitor.jpg", "title": "The Long Visitor", "planet": null, "category": "Fiction / unidentified archival setting", "series": "warrior-11", "description": "descriptions/warrior-series11-07-ivara-the-long-visitor-755ef3.html", "image": "images/warrior-series11-07-ivara-the-long-visitor.jpg", "scientific_anchor": "Heating near a star releases material from a comet into a coma and tails. Dust scatters starlight and commonly forms a curved tail, while ionized gas responds strongly to the stellar wind and can form a straighter tail. Both generally extend away from the star. [1] A long tail is not a trail of flames marking an atmospheric impact.", "scene_assumptions": "Copper-skinned alien with a narrow elongated head and terracotta wrap in half-kneeling martial meditation with a vertical open palm. Copper-red dune field below distant dark sandstone ranges. Ivara and this comet are invented. No real comet ephemeris or orbital distance is assigned. The tail geometry places the illuminating star below the horizon near the coma, with both tails stretching away across the sky. The scene depicts a rare bright-comet appearance with photographic sensitivity; the coma is not the solid nucleus.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Science · Comet facts", "url": "https://science.nasa.gov/solar-system/comets/facts/" } ], "measurements": null, "original_context": [], "setting_name": "Ivara · fictional world", "galaxy": null, "fictional_world": "Ivara", "preview": "assets/images/warrior-series11-07-ivara-the-long-visitor-755ef3.webp", "sha256": "01c5fb6ba1ec1e64b6a6d0f82ee2ff76f906f2b3298ad1a878a37275d18ea04c", "canonical_original": "World Images/warrior-series11-07-ivara-the-long-visitor.jpg", "limitations": "Ivara and this comet are invented. No real comet ephemeris or orbital distance is assigned. The tail geometry places the illuminating star below the horizon near the coma, with both tails stretching away across the sky. The scene depicts a rare bright-comet appearance with photographic sensitivity; the coma is not the solid nucleus. All beings and cultures are fictional. Martial forms are artistic poses, not instructional diagrams. Character narratives and teachings remain the author's work.", "review": "Selected revision moves the warrior deeper into the dunes to approximately 13% of image height. Both translucent tail types and the complete half-kneeling guard remain legible." }, { "registry_id": "warrior-series11-08-kheln-the-polar-breath-3fc0bd", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": null, "mapping_basis": "generation manifest", "filename": "warrior-series11-08-kheln-the-polar-breath.jpg", "title": "The Polar Breath", "planet": null, "category": "Fiction / unidentified archival setting", "series": "warrior-11", "description": "descriptions/warrior-series11-08-kheln-the-polar-breath-3fc0bd.html", "image": "images/warrior-series11-08-kheln-the-polar-breath.jpg", "scientific_anchor": "Aurorae arise when energetic particles interact with an upper atmosphere, exciting atoms and molecules that emit light. On Earth, oxygen and nitrogen contribute characteristic colors, while magnetic-field geometry helps organize curtain-like structures. [1] An aurora is an atmospheric process linked to space weather, not a distant nebula.", "scene_assumptions": "White-furred broad-headed alien in dark indigo training clothes in seated leg extension with one raised open palm. Frosted solid shore beside a partly frozen lake and snowy mountains. Kheln, its atmospheric chemistry, magnetic field, ice, organism and off-frame light source are fictional. Earthlike colors are used as a physical analogy, not a measurement of alien gases. Auroral morphology is referenced to observations, but its exact altitude, spectrum and brightness are not calculated.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Science · Auroras", "url": "https://science.nasa.gov/sun/auroras/" } ], "measurements": null, "original_context": [], "setting_name": "Kheln · fictional world", "galaxy": null, "fictional_world": "Kheln", "preview": "assets/images/warrior-series11-08-kheln-the-polar-breath-3fc0bd.webp", "sha256": "9362656c807413b89348e616945abbcaa1711e1a6521e903d4b49b9118cd96bb", "canonical_original": "World Images/warrior-series11-08-kheln-the-polar-breath.jpg", "limitations": "Kheln, its atmospheric chemistry, magnetic field, ice, organism and off-frame light source are fictional. Earthlike colors are used as a physical analogy, not a measurement of alien gases. Auroral morphology is referenced to observations, but its exact altitude, spectrum and brightness are not calculated. All beings and cultures are fictional. Martial forms are artistic poses, not instructional diagrams. Character narratives and teachings remain the author's work.", "review": "A small approximately 13%-height seated figure is fully grounded beside the lake. Translucent green curtains, red upper fringes and their restrained reflections dominate the composition." }, { "registry_id": "warrior-series11-09-miruun-the-hydrogen-garden-27bbdf", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": null, "mapping_basis": "generation manifest", "filename": "warrior-series11-09-miruun-the-hydrogen-garden.jpg", "title": "The Hydrogen Garden", "planet": null, "category": "Fiction / unidentified archival setting", "series": "warrior-11", "description": "descriptions/warrior-series11-09-miruun-the-hydrogen-garden-27bbdf.html", "image": "images/warrior-series11-09-miruun-the-hydrogen-garden.jpg", "scientific_anchor": "Massive stars shape surrounding gas through radiation and outflows. Dense dusty structures can remain dark against brighter ionized gas, producing pillars and cavities; the Carina Nebula offers observed examples. [1] The silhouette marks obscuring material, not solid towers suspended in a planetary atmosphere.", "scene_assumptions": "Olive-scaled reptilian alien in dark plum martial garments in low asymmetric martial ward-off form with rounded forearm and open palm. Limestone meadow ledge above a broad karst river valley. Miruun is invented and has no assignment to a detected star or planet. Carina is a morphological reference. A cloud complex 100 light-years wide viewed from 150 light-years away would span about 37 degrees; these are illustrative scale choices. Nebular color uses photographic sensitivity, while a separate off-frame moonlike source lights the terrain. No radiation environment or habitability model is asserted.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] ESA/Hubble · Visible-light Carina Nebula", "url": "https://esahubble.org/images/heic0910e/" } ], "measurements": null, "original_context": [], "setting_name": "Miruun · fictional world", "galaxy": null, "fictional_world": "Miruun", "preview": "assets/images/warrior-series11-09-miruun-the-hydrogen-garden-27bbdf.webp", "sha256": "b2440c1aee5eed222772b634b54ac8882b0b91887f8d152005aa8cd0be878fee", "canonical_original": "World Images/warrior-series11-09-miruun-the-hydrogen-garden.jpg", "limitations": "Miruun is invented and has no assignment to a detected star or planet. Carina is a morphological reference. A cloud complex 100 light-years wide viewed from 150 light-years away would span about 37 degrees; these are illustrative scale choices. Nebular color uses photographic sensitivity, while a separate off-frame moonlike source lights the terrain. No radiation environment or habitability model is asserted. All beings and cultures are fictional. Martial forms are artistic poses, not instructional diagrams. Character narratives and teachings remain the author's work.", "review": "Dark dust pillars are separated from local valley mist. A grounded approximately 19%-height reptilian warrior shows a distinct low martial form against the distant river." }, { "registry_id": "warrior-series11-10-orith-the-distant-spindle-f06014", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": null, "mapping_basis": "generation manifest", "filename": "warrior-series11-10-orith-the-distant-spindle.jpg", "title": "The Distant Spindle", "planet": null, "category": "Fiction / unidentified archival setting", "series": "warrior-11", "description": "descriptions/warrior-series11-10-orith-the-distant-spindle-f06014.html", "image": "images/warrior-series11-10-orith-the-distant-spindle.jpg", "scientific_anchor": "A spiral galaxy viewed nearly edge-on appears as a narrow stellar disk, often with a central bulge and a dark lane where dust blocks background starlight. NGC 4565 illustrates this orientation especially clearly. [1] The apparent spindle shape is a viewing projection rather than a fundamentally needle-shaped stellar system.", "scene_assumptions": "Charcoal-feathered avian alien with a short hooked beak in rear three-quarter cross-legged meditation with open hands over knees. Ancient schist shoreline beside a still alpine lake. Orith is an invented exterior viewpoint, with no host or planetary assignment to NGC 4565. A 100,000-light-year disk at 160,000 light-years spans about 35 degrees; these are illustrative geometry choices. Long-exposure sensitivity reveals diffuse galactic structure, while separate off-frame illumination supplies terrain detail. The lake, tree, warrior and culture are fictional.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] ESA/Hubble · NGC 4565 edge-on galactic disk", "url": "https://esahubble.org/images/potw1228a/" } ], "measurements": null, "original_context": [], "setting_name": "Orith · fictional world", "galaxy": null, "fictional_world": "Orith", "preview": "assets/images/warrior-series11-10-orith-the-distant-spindle-f06014.webp", "sha256": "96b67fba7966cc264b6c831a7168e191996494629163ca7c16a72a85bafc132e", "canonical_original": "World Images/warrior-series11-10-orith-the-distant-spindle.jpg", "limitations": "Orith is an invented exterior viewpoint, with no host or planetary assignment to NGC 4565. A 100,000-light-year disk at 160,000 light-years spans about 35 degrees; these are illustrative geometry choices. Long-exposure sensitivity reveals diffuse galactic structure, while separate off-frame illumination supplies terrain detail. The lake, tree, warrior and culture are fictional. All beings and cultures are fictional. Martial forms are artistic poses, not instructional diagrams. Character narratives and teachings remain the author's work.", "review": "A single edge-on disk with central bulge and dust lane dominates the upper sky and water reflection. The avian seated figure is approximately 16% of frame height with visible ground and physical relief." }, { "registry_id": "warrior-rajiv01-01-trappist-1-e-fdff44", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "TRAPPIST-1", "mapping_basis": "generation manifest", "filename": "warrior-rajiv01-01-trappist-1-e.jpg", "title": "Rajiv — Rain Form", "planet": "TRAPPIST-1 e", "category": "Real exoplanet setting", "series": "warrior-rajiv-01", "description": "descriptions/warrior-rajiv01-01-trappist-1-e-fdff44.html", "image": "images/warrior-rajiv01-01-trappist-1-e.jpg", "scientific_anchor": "TRAPPIST-1 e is one of seven approximately Earth-sized planets around an ultracool red dwarf. The saved catalog reports an orbital period of 6.101013 ± 0.000035 days and radius of 0.920 Earth radii, with +0.013/−0.012 uncertainty. [1] Transit and timing measurements constrain the system without resolving its landscape. NASA’s Webb overview describes atmospheric interpretation as ongoing and notes contamination from stellar activity. [2] Neither rainforests nor a breathable atmosphere follow from location in the habitable zone.", "scene_assumptions": "Rajiv practices a barehanded martial-arts stance on a wet stone courtyard amid lush vegetation, heavy rain, misty cliffs and waterfalls. An overgrown physical relief depicts seven worlds and imagined animals. A small warm host star shines through storm clouds. The rainforest, rain, liquid water, waterfalls, terrain, atmosphere, courtyard, relief and human presence are invented. Green plant colors are an artistic choice, not an inferred biology. The low star and cloud lighting are illustrative; no climate model, fixed terminator, observation date or human habitability is claimed.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · TRAPPIST-1 e · saved composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/TRAPPIST-1%20e" }, { "text": "[2] NASA/Webb · What is Webb Revealing About the TRAPPIST-1 System?", "url": "https://science.nasa.gov/mission/webb/science-overview/science-explainers/what-is-webb-revealing-about-the-trappist-1-system/" }, { "text": "Gillon et al. 2017", "url": "https://ui.adsabs.harvard.edu/abs/2017Natur.542..456G/abstract" }, { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" }, { "text": "Grimm et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..68G/abstract" }, { "text": "Ducrot et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020A&A...640A.112D/abstract" }, { "text": "Piaulet-Ghorayeb et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025ApJ...989..181P/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } ], "measurements": { "pl_rade": { "v": 0.92, "plus": 0.013, "minus": -0.012, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_bmasse": { "v": 0.692, "plus": 0.022, "minus": -0.022, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_dens": { "v": 4.901605, "plus": 0.165408, "minus": -0.181949, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_orbper": { "v": 6.101013, "plus": 3.5e-05, "minus": -3.5e-05, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_orbsmax": { "v": 0.02925, "plus": 0.0025, "minus": -0.0025, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_orbeccen": { "v": 0.0051, "plus": 0.00058, "minus": -0.00058, "limit": 0, "source": { "text": "Grimm et al. 2018", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...613A..68G/abstract" } }, "pl_orbincl": { "v": 89.793, "plus": 0.048, "minus": -0.048, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_insol": { "v": 0.646, "plus": 0.025, "minus": -0.025, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "pl_eqt": { "v": 249.7, "plus": 2.4, "minus": -2.4, "limit": 0, "source": { "text": "Ducrot et al. 2020", "url": "https://ui.adsabs.harvard.edu/abs/2020A&A...640A.112D/abstract" } }, "st_teff": { "v": 2566.0, "plus": 26.0, "minus": -26.0, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "st_rad": { "v": 0.1192, "plus": 0.0013, "minus": -0.0013, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "st_mass": { "v": 0.0898, "plus": 0.0023, "minus": -0.0023, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "st_lum": { "v": -3.25727, "plus": 0.01467, "minus": -0.01518, "limit": 0, "source": { "text": "Agol et al. 2021", "url": "https://ui.adsabs.harvard.edu/abs/2021PSJ.....2....1A/abstract" } }, "st_age": { "v": 7.6, "plus": 2.2, "minus": -2.2, "limit": 0, "source": { "text": "Piaulet-Ghorayeb et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025ApJ...989..181P/abstract" } }, "st_met": { "v": 0.052, "plus": 0.073, "minus": -0.073, "limit": 0, "source": { "text": "Piaulet-Ghorayeb et al. 2025", "url": "https://ui.adsabs.harvard.edu/abs/2025ApJ...989..181P/abstract" } }, "sy_dist": { "v": 12.42988881, "plus": 0.01870661, "minus": -0.01870661, "limit": 0.0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } } }, "original_context": [], "setting_name": "TRAPPIST-1 e", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-rajiv01-01-trappist-1-e-fdff44.webp", "sha256": "dc776098865069a9eeb2a92fe99d2cddb9c71438a3b5b38ba0101496ad0de0c1", "canonical_original": "World Images/warrior-rajiv01-01-trappist-1-e.jpg", "limitations": "The rainforest, rain, liquid water, waterfalls, terrain, atmosphere, courtyard, relief and human presence are invented. Green plant colors are an artistic choice, not an inferred biology. The low star and cloud lighting are illustrative; no climate model, fixed terminator, observation date or human habitability is claimed. The person is a generated portrayal based on the user-supplied portrait. Bruce Lee was a movement reference only, not the depicted identity.", "review": "Visually reviewed: wide landscape with a small full-body martial artist, portrait-inspired face and hair, clear training stance, rain, green plants, waterfalls, seven-circle stone relief and a single low star. Terrain is continuous and no glass or orbital viewpoint appears. Figure is somewhat larger than the requested 15–20% prompt target, but the environment strongly dominates." }, { "registry_id": "warrior-rajiv01-02-kepler-16-b-b6fa88", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-16", "mapping_basis": "generation manifest", "filename": "warrior-rajiv01-02-kepler-16-b.jpg", "title": "Rajiv — Monsoon Stillness", "planet": "Kepler-16 b", "category": "Real exoplanet setting", "series": "warrior-rajiv-01", "description": "descriptions/warrior-rajiv01-02-kepler-16-b-b6fa88.html", "image": "images/warrior-rajiv01-02-kepler-16-b.jpg", "scientific_anchor": "Kepler-16 b is a cold giant planet orbiting both stars of an eclipsing binary. Stellar eclipses and planetary transits established its circumbinary geometry. [2] The saved catalog reports a period of 228.776 days, with +0.020/−0.037 uncertainty. [1] The two suns and giant planet provide the astronomical anchor. The foreground is an invented moon because the giant does not provide a terrestrial surface; the cited observations do not establish such a moon or a lush environment.", "scene_assumptions": "Rajiv sits cross-legged in meditation in an open, vine-covered stone pavilion. Rain falls over a green mountain valley and waterfalls. A weathered creature relief covers a pillar; a blue gas giant and two low suns appear through the clouds. The moon, temperate rainy climate, breathable air, green organisms, waterfalls, stone pavilion, artwork and human presence are fictional. Kepler-16 b receives relatively weak stellar irradiation; this lush climate is not a climate prediction or a consequence of its measured orbit. The giant’s blue clouds, apparent size, phase, sky position and the stellar separation are artistic. No moon stability or sky-geometry calculation is claimed.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · Kepler-16 b · saved composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-16%20b" }, { "text": "[2] NASA/JPL · Kepler Discovery Confirms First Planet Orbiting Two Stars", "url": "https://www.jpl.nasa.gov/news/nasas-kepler-discovery-confirms-first-planet-orbiting-two-stars/" }, { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" }, { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" }, { "text": "Q1-Q8 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 8.4493, "plus": 0.0291, "minus": -0.0291, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_bmasse": { "v": 105.833, "plus": 5.085, "minus": -5.085, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_dens": { "v": 0.964, "plus": 0.047, "minus": -0.046, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbper": { "v": 228.776, "plus": 0.02, "minus": -0.037, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbsmax": { "v": 0.7048, "plus": 0.0011, "minus": -0.0011, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbeccen": { "v": 0.0069, "plus": 0.001, "minus": -0.0015, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_orbincl": { "v": 90.0322, "plus": 0.0022, "minus": -0.0023, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "pl_insol": { "v": 0.2517, "plus": 0.0012, "minus": -0.0012, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_eqt": { "v": 205.9, "plus": 6.95, "minus": -6.95, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "st_teff": { "v": 4450.0, "plus": 150.0, "minus": -150.0, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "st_rad": { "v": 0.6489, "plus": 0.0013, "minus": -0.0013, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "st_mass": { "v": 0.6897, "plus": 0.0035, "minus": -0.0034, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "st_lum": { "v": -0.90301, "plus": 0.00147, "minus": -0.00148, "limit": 0, "source": { "text": "Gaia DR2", "url": "https://ui.adsabs.harvard.edu/abs/2018A&A...616A...1G/abstract" } }, "st_age": { "v": 3.8, "plus": 3.7, "minus": -3.7, "limit": 0, "source": { "text": "Q1-Q8 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" } }, "st_met": { "v": -0.3, "plus": 0.2, "minus": -0.2, "limit": 0, "source": { "text": " Doyle et al. 2011 ", "url": "https://ui.adsabs.harvard.edu/abs/2011Sci...333.1602D/abstract" } }, "sy_dist": { "v": 75.0852, "plus": 0.1541, "minus": -0.1536, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-16 b", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-rajiv01-02-kepler-16-b-b6fa88.webp", "sha256": "521a6ea7c1f575b84ab892ae0d7558ad49fc086b4ec727d19b9e7e3dc0b49544", "canonical_original": "World Images/warrior-rajiv01-02-kepler-16-b.jpg", "limitations": "The moon, temperate rainy climate, breathable air, green organisms, waterfalls, stone pavilion, artwork and human presence are fictional. Kepler-16 b receives relatively weak stellar irradiation; this lush climate is not a climate prediction or a consequence of its measured orbit. The giant’s blue clouds, apparent size, phase, sky position and the stellar separation are artistic. No moon stability or sky-geometry calculation is claimed. The person is a generated portrayal based on the user-supplied portrait. Bruce Lee was a movement reference only, not the depicted identity.", "review": "Visually reviewed: seated human meditation with closed eyes and relaxed hands, open ground-connected pavilion, foreground plants and large rainy green valley, physical pillar relief, blue giant partly behind clouds and two suns. No glass, spaceship or floating viewpoint. Likeness is portrait-inspired; environmental scale retained." }, { "registry_id": "warrior-rajiv01-03-kepler-186-f-88ac0c", "registry_fingerprint": "89bb64354de4315657d42f4a2b859d87859c20cde72ec7a416714acc9657ac30", "host": "Kepler-186", "mapping_basis": "generation manifest", "filename": "warrior-rajiv01-03-kepler-186-f.jpg", "title": "Rajiv — The Waterfall Courtyard", "planet": "Kepler-186 f", "category": "Real exoplanet setting", "series": "warrior-rajiv-01", "description": "descriptions/warrior-rajiv01-03-kepler-186-f-88ac0c.html", "image": "images/warrior-rajiv01-03-kepler-186-f.jpg", "scientific_anchor": "Kepler-186 f was discovered through transits and lies in its red dwarf host’s habitable zone, where surface liquid water could be possible under suitable atmospheric conditions. The discovery itself did not establish water or life. [2] The saved catalog gives a radius of 1.17 ± 0.08 Earth radii and orbital period of 129.9441 days, with +0.0013/−0.0012 uncertainty. Its catalog mass is derived from a mass–radius relationship, not a direct mass measurement. [1] The image’s lush surface is therefore speculative.", "scene_assumptions": "Rajiv performs a controlled side kick on wet stone amid rain, dense greenery and towering waterfalls. A worn physical carving of coiling creatures and five worlds occupies the cliff beside him. A small warm star appears above distant ridges. All vegetation, liquid water, rain, waterfalls, geology, atmosphere, architecture, wall art and human presence are imagined. A habitable-zone designation is not evidence for habitation or a breathable atmosphere. Green pigments, the star’s color, weather, apparent sky geometry and illumination are artistic; this is not a calibrated climate or sky simulation.", "evidence_boundary": "Alien life, humanoids, civilizations and conflicts are fictional. A visible moon is not evidence of a detected exomoon. Atmosphere, surface chemistry, oceans, climate, magnetic fields and aurorae require separate evidence; none is established merely by this illustration. Apparent sizes, phases, sky positions, star colors and exposure are artistic and may contain rendering inconsistencies.", "references": [ { "text": "[1] NASA Exoplanet Archive · Kepler-186 f · saved composite snapshot, 25 September 2026", "url": "https://exoplanetarchive.ipac.caltech.edu/overview/Kepler-186%20f" }, { "text": "[2] NASA · Kepler Telescope Discovers First Earth-Size Planet in Habitable Zone", "url": "https://www.nasa.gov/news-release/nasas-kepler-telescope-discovers-first-earth-size-planet-in-habitable-zone/" }, { "text": " Quintana et al. 2014 ", "url": "https://ui.adsabs.harvard.edu/abs/2014Sci...344..277Q/abstract" }, { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" }, { "text": "Q1-Q17 DR25 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" }, { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } ], "measurements": { "pl_rade": { "v": 1.17, "plus": 0.08, "minus": -0.08, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_bmasse": { "v": 1.71, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_dens": { "v": 5.87, "plus": null, "minus": null, "limit": 0, "source": { "text": "Calculated Value", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/pscp_calc.html" } }, "pl_orbper": { "v": 129.9441, "plus": 0.0013, "minus": -0.0012, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_orbsmax": { "v": 0.432, "plus": 0.171, "minus": -0.053, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_orbeccen": { "v": 0.04, "plus": 0.07, "minus": -0.04, "limit": -1, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_orbincl": { "v": 89.96, "plus": 0.04, "minus": -0.1, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_insol": { "v": 0.3, "plus": 0.1, "minus": -0.15, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "pl_eqt": { "v": 177.0, "plus": null, "minus": null, "limit": 0, "source": { "text": "Q1-Q17 DR25 KOI Table", "url": "https://exoplanetarchive.ipac.caltech.edu/docs/Kepler_KOI_docs.html" } }, "st_teff": { "v": 3755.0, "plus": 90.0, "minus": -90.0, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "st_rad": { "v": 0.523, "plus": 0.023, "minus": -0.021, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "st_mass": { "v": 0.544, "plus": 0.024, "minus": -0.021, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "st_lum": { "v": -1.26, "plus": 0.079, "minus": -0.05, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "st_age": { "v": 4.0, "plus": 0.6, "minus": -0.6, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "st_met": { "v": -0.26, "plus": 0.12, "minus": -0.12, "limit": 0, "source": { "text": "Torres et al. 2015", "url": "https://ui.adsabs.harvard.edu/abs/2015ApJ...800...99T/abstract" } }, "sy_dist": { "v": 177.594, "plus": 0.774, "minus": -0.774, "limit": 0.0, "source": { "text": "TICv8", "url": "https://ui.adsabs.harvard.edu/abs/2019AJ....158..138S/abstract" } } }, "original_context": [], "setting_name": "Kepler-186 f", "galaxy": null, "fictional_world": null, "preview": "assets/images/warrior-rajiv01-03-kepler-186-f-88ac0c.webp", "sha256": "e934359a42f40e1b35a08f737c599a03425bf3773c5f339540708e56f3481609", "canonical_original": "World Images/warrior-rajiv01-03-kepler-186-f.jpg", "limitations": "All vegetation, liquid water, rain, waterfalls, geology, atmosphere, architecture, wall art and human presence are imagined. A habitable-zone designation is not evidence for habitation or a breathable atmosphere. Green pigments, the star’s color, weather, apparent sky geometry and illumination are artistic; this is not a calibrated climate or sky simulation. The person is a generated portrayal based on the user-supplied portrait. Bruce Lee was a movement reference only, not the depicted identity.", "review": "Visually reviewed: full-body side kick with a planted support leg, recognizable portrait-inspired head and hair, wet stone and rain, large green landscape, waterfalls, cliff relief and small host star. No opponent or injury. The human is larger than the 18–20% prompt target but remains a small part of the wide landscape; all limbs are inside frame." } ], "books": [ { "volume": "I", "title": "Warrior Worlds", "url": "books/warrior-worlds/index.html", "chapters": [ { "n": 1, "title": "A Planet with Two Suns", "registry_id": "warrior-series01-01-kepler-16-b-2b5e6e", "planet": "Kepler-16 b", "host": "Kepler-16", "setting_name": "Kepler-16 b" }, { "n": 2, "title": "An Earth-sized World in a Compact System", "registry_id": "warrior-series01-02-trappist-1-e-fc0e1f", "planet": "TRAPPIST-1 e", "host": "TRAPPIST-1", "setting_name": "TRAPPIST-1 e" }, { "n": 3, "title": "Orbiting a Binary Star", "registry_id": "warrior-series01-03-kepler-34-b-5c4a63", "planet": "Kepler-34 b", "host": "Kepler-34", "setting_name": "Kepler-34 b" }, { "n": 4, "title": "A Planet Found in Stellar Motion", "registry_id": "warrior-series01-04-hd-45364-b-91b4ee", "planet": "HD 45364 b", "host": "HD 45364", "setting_name": "HD 45364 b" }, { "n": 5, "title": "The Outer World of Kepler-47", "registry_id": "warrior-series01-05-kepler-47-c-6d200e", "planet": "Kepler-47 c", "host": "Kepler-47", "setting_name": "Kepler-47 c" }, { "n": 6, "title": "A Nearby World, Indirectly Measured", "registry_id": "warrior-series01-06-proxima-cen-b-853965", "planet": "Proxima Cen b", "host": "Proxima Cen", "setting_name": "Proxima Cen b" }, { "n": 7, "title": "A Long Orbit Around Two Stars", "registry_id": "warrior-series01-07-kepler-1647-b-c9cc02", "planet": "Kepler-1647 b", "host": "Kepler-1647", "setting_name": "Kepler-1647 b" }, { "n": 8, "title": "A Year Shorter Than a Day", "registry_id": "warrior-series01-08-55-cnc-e-510da9", "planet": "55 Cnc e", "host": "55 Cnc", "setting_name": "55 Cnc e" }, { "n": 9, "title": "The Limits of a Distant Planet Portrait", "registry_id": "warrior-series01-09-hd-128311-c-62ece4", "planet": "HD 128311 c", "host": "HD 128311", "setting_name": "HD 128311 c" }, { "n": 10, "title": "A Giant in a Two-Star System", "registry_id": "warrior-series01-10-kepler-35-b-c461f6", "planet": "Kepler-35 b", "host": "Kepler-35", "setting_name": "Kepler-35 b" }, { "n": 11, "title": "An Extremely Eccentric Orbit", "registry_id": "warrior-series02-01-hd-80606-b-26d40a", "planet": "HD 80606 b", "host": "HD 80606", "setting_name": "HD 80606 b" }, { "n": 12, "title": "Measuring a Temperate Super-Earth", "registry_id": "warrior-series02-02-lhs-1140-b-6bc1f2", "planet": "LHS 1140 b", "host": "LHS 1140", "setting_name": "LHS 1140 b" }, { "n": 13, "title": "Radius, Mass and Unequal Certainty", "registry_id": "warrior-series02-03-kepler-186-f-043d51", "planet": "Kepler-186 f", "host": "Kepler-186", "setting_name": "Kepler-186 f" }, { "n": 14, "title": "Transits in a Moving Binary", "registry_id": "warrior-series02-04-kepler-413-b-96c6b3", "planet": "Kepler-413 b", "host": "Kepler-413", "setting_name": "Kepler-413 b" }, { "n": 15, "title": "A Circumbinary Planet Observed in Transit", "registry_id": "warrior-series02-05-toi-1338-b-04e886", "planet": "TOI-1338 b", "host": "TOI-1338 A", "setting_name": "TOI-1338 b" }, { "n": 16, "title": "Density Beyond the Solar System", "registry_id": "warrior-series02-06-trappist-1-f-01ee2a", "planet": "TRAPPIST-1 f", "host": "TRAPPIST-1", "setting_name": "TRAPPIST-1 f" }, { "n": 17, "title": "The Scale of a Hot Giant", "registry_id": "warrior-series02-07-hd-209458-b-fe4488", "planet": "HD 209458 b", "host": "HD 209458", "setting_name": "HD 209458 b" }, { "n": 18, "title": "An Upper Limit Is Not a Mass", "registry_id": "warrior-series02-08-kepler-62-f-3265eb", "planet": "Kepler-62 f", "host": "Kepler-62", "setting_name": "Kepler-62 f" }, { "n": 19, "title": "Between the Orbits of a Binary System", "registry_id": "warrior-series02-09-kepler-47-d-4d5bf1", "planet": "Kepler-47 d", "host": "Kepler-47", "setting_name": "Kepler-47 d" }, { "n": 20, "title": "A Long-Period Transit Signal", "registry_id": "warrior-series02-10-kepler-452-b-5a4cc2", "planet": "Kepler-452 b", "host": "Kepler-452", "setting_name": "Kepler-452 b" } ] }, { "volume": "II", "title": "The Discipline of Stars", "url": "books/warrior-worlds-ii/index.html", "chapters": [ { "n": 1, "title": "A Planet Around a Pulsar", "registry_id": "warrior-series03-01-psr-b1257-12-c-bdfbeb", "planet": "PSR B1257+12 c", "host": "PSR B1257+12", "setting_name": "PSR B1257+12 c" }, { "n": 2, "title": "A Giant Beside a White Dwarf", "registry_id": "warrior-series03-02-wd-1856-534-b-0e8cc8", "planet": "WD 1856+534 b", "host": "WD 1856+534", "setting_name": "WD 1856+534 b" }, { "n": 3, "title": "A Planet Orbiting Two Stars", "registry_id": "warrior-series03-03-kepler-453-b-62c092", "planet": "Kepler-453 b", "host": "Kepler-453", "setting_name": "Kepler-453 b" }, { "n": 4, "title": "A Planet Revealed by Dust", "registry_id": "warrior-series03-04-k2-22-b-2209a5", "planet": "K2-22 b", "host": "K2-22", "setting_name": "K2-22 b" }, { "n": 5, "title": "Cloud Chemistry on a Low-Density Giant", "registry_id": "warrior-series03-05-wasp-107-b-be851c", "planet": "WASP-107 b", "host": "WASP-107", "setting_name": "WASP-107 b" }, { "n": 6, "title": "A Blue Giant Seen in Reflected Light", "registry_id": "warrior-series03-06-hd-189733-b-034ef5", "planet": "HD 189733 b", "host": "HD 189733", "setting_name": "HD 189733 b" }, { "n": 7, "title": "Tides and an Escaping Atmosphere", "registry_id": "warrior-series03-07-wasp-12-b-661ab9", "planet": "WASP-12 b", "host": "WASP-12", "setting_name": "WASP-12 b" }, { "n": 8, "title": "Heat That Changes the Chemistry", "registry_id": "warrior-series03-08-kelt-9-b-ea326b", "planet": "KELT-9 b", "host": "KELT-9", "setting_name": "KELT-9 b" }, { "n": 9, "title": "Direct Light from a Young Giant", "registry_id": "warrior-series03-09-hip-65426-b-f5738b", "planet": "HIP 65426 b", "host": "HIP 65426", "setting_name": "HIP 65426 b" }, { "n": 10, "title": "Revising an Iron-Rich Planet", "registry_id": "warrior-series03-10-gj-367-b-68636d", "planet": "GJ 367 b", "host": "GJ 367", "setting_name": "GJ 367 b" } ] }, { "volume": "III", "title": "The Warrior Meditation Guide", "url": "books/warrior-worlds-iii/index.html", "chapters": [ { "n": 1, "title": "Light at the Terminator", "registry_id": "warrior-series04-01-toi-700-d-93822b", "planet": "TOI-700 d", "host": "TOI-700", "setting_name": "TOI-700 d" }, { "n": 2, "title": "The Color of a Cooler Sun", "registry_id": "warrior-series04-02-kepler-442-b-4cd8a4", "planet": "Kepler-442 b", "host": "Kepler-442", "setting_name": "Kepler-442 b" }, { "n": 3, "title": "A Planet in the Star’s Motion", "registry_id": "warrior-series04-03-ross-128-b-f1b134", "planet": "Ross 128 b", "host": "Ross 128", "setting_name": "Ross 128 b" }, { "n": 4, "title": "The Reflective Veil", "registry_id": "warrior-series04-04-gj-1214-b-a92323", "planet": "GJ 1214 b", "host": "GJ 1214", "setting_name": "GJ 1214 b" }, { "n": 5, "title": "An Orbit Around Two Suns", "registry_id": "warrior-series04-05-kepler-1661-b-1e861e", "planet": "Kepler-1661 b", "host": "Kepler-1661", "setting_name": "Kepler-1661 b" }, { "n": 6, "title": "Minerals in the Clouds", "registry_id": "warrior-series04-06-wasp-17-b-bc17a3", "planet": "WASP-17 b", "host": "WASP-17", "setting_name": "WASP-17 b" }, { "n": 7, "title": "Chemistry Written by Starlight", "registry_id": "warrior-series04-07-wasp-39-b-973db5", "planet": "WASP-39 b", "host": "WASP-39", "setting_name": "WASP-39 b" }, { "n": 8, "title": "Where Iron Can Condense", "registry_id": "warrior-series04-08-wasp-76-b-80894a", "planet": "WASP-76 b", "host": "WASP-76", "setting_name": "WASP-76 b" }, { "n": 9, "title": "Light from a Young Giant", "registry_id": "warrior-series04-09-hr-8799-e-e3d14a", "planet": "HR 8799 e", "host": "HR 8799", "setting_name": "HR 8799 e" }, { "n": 10, "title": "An Ancient World in a Star Cluster", "registry_id": "warrior-series04-10-psr-b1620-26-b-763b9a", "planet": "PSR B1620-26 b", "host": "PSR B1620-26", "setting_name": "PSR B1620-26 b" } ] }, { "volume": "IV", "title": "Sovereigns of the Silent Sky", "url": "books/warrior-worlds-iv/index.html", "chapters": [ { "n": 1, "title": "The Star That Takes a World", "registry_id": "warrior-series05-01-wasp-12-b-7611bf", "planet": "WASP-12 b", "host": "WASP-12", "setting_name": "WASP-12 b" }, { "n": 2, "title": "A World Unraveling into Dust", "registry_id": "warrior-series05-02-k2-22-b-34f5da", "planet": "K2-22 b", "host": "K2-22", "setting_name": "K2-22 b" }, { "n": 3, "title": "The Incandescent Hemisphere", "registry_id": "warrior-series05-03-55-cnc-e-0ce5d8", "planet": "55 Cnc e", "host": "55 Cnc", "setting_name": "55 Cnc e" }, { "n": 4, "title": "When One Sun Crosses Another", "registry_id": "warrior-series05-04-kepler-16-b-062df8", "planet": "Kepler-16 b", "host": "Kepler-16", "setting_name": "Kepler-16 b" }, { "n": 5, "title": "A Giant Hides a Dead Star", "registry_id": "warrior-series05-05-wd-1856-534-b-f841d1", "planet": "WD 1856+534 b", "host": "WD 1856+534", "setting_name": "WD 1856+534 b" }, { "n": 6, "title": "Heat That Unmakes Molecules", "registry_id": "warrior-series05-06-kelt-9-b-f61cf3", "planet": "KELT-9 b", "host": "KELT-9", "setting_name": "KELT-9 b" }, { "n": 7, "title": "The Violence of Closest Approach", "registry_id": "warrior-series05-07-hd-80606-b-b13268", "planet": "HD 80606 b", "host": "HD 80606", "setting_name": "HD 80606 b" }, { "n": 8, "title": "A Young World Still Shining", "registry_id": "warrior-series05-08-hr-8799-e-09fe07", "planet": "HR 8799 e", "host": "HR 8799", "setting_name": "HR 8799 e" }, { "n": 9, "title": "The Disk Where Moons May Begin", "registry_id": "warrior-series05-09-pds-70-c-3f08fa", "planet": "PDS 70 c", "host": "PDS 70", "setting_name": "PDS 70 c" }, { "n": 10, "title": "The Architecture of a Dusty System", "registry_id": "warrior-series05-10-beta-pic-b-2fc64b", "planet": "bet Pic b", "host": "bet Pic", "setting_name": "bet Pic b" }, { "n": 11, "title": "A Giant Beneath Two Suns", "registry_id": "warrior-series05-11-kepler-16-b-copper-crown-89ffe8", "planet": "Kepler-16 b", "host": "Kepler-16", "setting_name": "Kepler-16 b" } ] }, { "volume": "V", "title": "Quiet Strength", "url": "books/warrior-worlds-v/index.html", "chapters": [ { "n": 1, "title": "The Two-Light Terrace", "registry_id": "warrior-series08-01-kepler-38-b-two-light-terrace-1ea944", "planet": "Kepler-38 b", "host": "Kepler-38", "setting_name": "Kepler-38 b" }, { "n": 2, "title": "The Distant Blue Court", "registry_id": "warrior-series08-02-hd-106906-b-blue-court-3c6c88", "planet": "HD 106906 b", "host": "HD 106906", "setting_name": "HD 106906 b" }, { "n": 3, "title": "Stillness at the Red Limb", "registry_id": "warrior-series08-03-au-mic-b-red-limb-5d028e", "planet": "AU Mic b", "host": "AU Mic", "setting_name": "AU Mic b" }, { "n": 4, "title": "The Cherry-Crescent Salt Garden", "registry_id": "warrior-series08-04-gj-504-b-salt-garden-0a3462", "planet": "GJ 504 b", "host": "GJ 504", "setting_name": "GJ 504 b" }, { "n": 5, "title": "The Occultation Basin", "registry_id": "warrior-series08-05-kepler-90-h-occultation-basin-4c9c4e", "planet": "KOI-351 h", "host": "KOI-351", "setting_name": "KOI-351 h" }, { "n": 6, "title": "The Helix Garden", "registry_id": "warrior-series08-06-aster-vale-helix-garden-5eb687", "planet": null, "host": null, "setting_name": "Aster Vale · fictional world near the Helix Nebula" }, { "n": 7, "title": "The Whirlpool Shore", "registry_id": "warrior-series08-07-nacre-whirlpool-shore-d6d4f0", "planet": null, "host": null, "setting_name": "Nacre · fictional world in the outer halo near M51" }, { "n": 8, "title": "The Veil over the Amber Steppe", "registry_id": "warrior-series08-08-sere-veil-steppe-a6f182", "planet": null, "host": null, "setting_name": "Sere · fictional world with a view toward the Cygnus Loop" }, { "n": 9, "title": "The Two-Tailed Visitor", "registry_id": "warrior-series08-09-ilyra-two-tailed-visitor-3bbf7c", "planet": null, "host": null, "setting_name": "Ilyra · fictional wetland world and local comet" }, { "n": 10, "title": "The Auroral Balance", "registry_id": "warrior-series08-10-thal-auroral-balance-9ab9c0", "planet": null, "host": null, "setting_name": "Thal · fictional magnetized mountain world" } ] } ] }