Wolfram Function Repository
Instant-use add-on functions for the Wolfram Language
Function Repository Resource:
Visualize the 3D appearance of planets and moons in our solar system
ResourceFunction["TelescopeView3D"][target] display a 3D view of target as observed from your current location at the current time. | |
ResourceFunction["TelescopeView3D"][target,date] display a 3D view of target as observed from your current location on the specified date. | |
ResourceFunction["TelescopeView3D"][target,loc] display a 3D view of target as observed from loc at the current time. | |
ResourceFunction["TelescopeView3D"][target,date,loc] display a 3D view of target as observed from loc on the specified date. |
"FieldWidth" | Automatic | angular width of the observation field |
"IncludeSaturnRings" | Automatic | whether to render Saturn's rings |
"IncludeTextures" | True | whether to include textures on supporting bodies |
"PointsOfInterest" | {} | locations to be labeled on the target |
"SatelliteLabels" | False | whether to include text labesl for natural satellites |
"SatelliteScalingFactor" | 1 | scaling factor for rendering natural satellites for visibility |
"SatellitesToInclude" | Automatic | additional natural satellites to include in the scene |
"PointsOfInterestStyle" | "LabeledPoint" | how to render the points of interest locations |
"Callout" | callout |
"Point" | red point |
"Tooltip" | red point with a tooltip |
“LabeledPoint” | labeled point |
{"LabeledPoint", style} | labeled point with the specified style |
{"Point", style} | point with the specified style |
{"Tooltip”, style} | tooltipped point with the specified style |
Visualize the face of Mars currently visible from Earth:
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Visualize the face of Jupiter visible from Earth on a specific date, including the position of the Great Red Spot:
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Visualize the appearance of the Moon as seen from Earth on a specific date:
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Use "FieldWidth" to zoom into a target:
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View Jupiter's moon Io as seen from the Amergin crater near the equator of Jupiter's moon Europa:
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Re-orient the camera so that the north ecliptic pole is up:
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By default, Saturn includes the rings:
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For faster rendering, the rings can be turned off:
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View the Earth and Moon from a Olympus Mons on Mars:
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Turn off the textures for Earth and the Moon so that their dark textures don't make it hard to see them:
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Visualize Mars and include both of its moons:
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Enlarge the moons for better visibility:
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Label the moons:
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Label features that are visible on Mars:
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Label features on the Moon:
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Label features on Io:
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Show the appearance of Mars at 10 PM local time:
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Simulate the occultation of Mars by the Moon:
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Simulate Neptune being occulted by Mercury as observed at the North Pole of the Earth:
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Reproduce the observations of Galileo on Jan 8, 1610:
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Explore the positions of some of Saturn's small moons near the rings:
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Explore a typical backyard telescopic view of Saturn's larger moons:
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Recreate an occultation of Saturn by Venus in 1771:
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Re-create a view of crescent Venus and a crescent Moon next to each other:
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Simulate the view from Apollo 8 during the famous "Earthrise" photograph. Assume a position near the equator of the Moon and slightly on the Earth‐side of the Moon. Africa can be seen on the terminator:
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Wolfram Language 13.0 (December 2021) or above
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