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Ceres · Rupes · 60th largest named feature

Niman Rupes

Hopi (SW USA) ritual ending the katsina (spiritual beings) season, celebrates the katsinas’ return to their spiritual home in July and their part in the blossoming of plant life.

What Niman Rupes is

Niman Rupes is a rupes — a scarp or cliff — on Ceres, 45 km across, centred at 28.6° S, 60.1° E. It is the 60th largest named feature on Ceres and the 1st largest of its class there.

Where the name comes from

Hopi (SW USA) ritual ending the katsina (spiritual beings) season, celebrates the katsinas’ return to their spiritual home in July and their part in the blossoming of plant life. The International Astronomical Union approved the name in 2015.

Feature class
a scarp or cliff
Diameter
45 km
about a marathon
Coordinates
28.6° S, 60.1° E
Planetocentric, on Ceres
Name approved
2015
By the IAU Working Group for Planetary System Nomenclature
Naming category
Hopi
North America

What it would take to settle Niman Rupes

Ceres scores 43.8 as a world. That number is the same for every square metre of it — but sunlight, water, radiation and the ground under your feet are not. This is the same question asked at 28.6° S, 60.1° E.

Settlement difficulty here
44.8/ 100
Typical for this world
Ceres overall
43.8
1 harder than the median site
Ranked
117th
of 149 named places on Ceres

What this spot has going for it is sunlight 88% of the sunlight the sunniest latitude on Ceres gets. What works against it is ground broken ground — hard to reach, and worth reaching for the shelter and the exposed strata.

Computed from Niman Rupes's catalogued latitude, longitude and feature class — 68% of the model's weight had a basis here, and 3 axes were dropped as not applicable to Ceres (radiation geometry, earth link, known ground). Gravity, pressure, delta-v and distance from the Sun are the same everywhere on Ceres and are already counted in the world's own index, not again here.

What this cannot see: elevation. Slope, local shadowing and the polar “peaks of eternal light” — ridge tops near the poles of a barely tilted world that catch sun almost continuously while a crater floor kilometres away never does — need a terrain model this does not have. Where a real mission targets a pole, that is usually why.

What is next to it