Full Lunar Surface Visualization and Simulation Platform

This paper documents the results and techniques of innovative work on a visualization and simulation environment for the entire surface of the moon. The outcome was a tool suite capable of supporting design, test, training, verification, and mission planning / support. The approach involves using fractal mathematics to generate the highest possible detail from 60 meter baseline Lunar Reconnaissance Orbiter (LRO) data. It also calculates estimates of surface reflectivity and lighting direction based on terrain imagery and elevation data. Upgrades to the system have enabled support for man-in-the-loop simulation, interaction, stereo viewing, and immersion. This level of detail is required to conduct accurate integrated crew / vehicle risk assessment throughout the design-to-disposal life cycle. This process starts with safety assessments of integrated hardware / software / crew / and support environments. Unlike the Apollo Program, the Artemis Program is not risk tolerant. Next steps will involve extending these capabilities to the Martian surface, thereby adding value across the entire Moon-to-Mars effort.

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Published
2025-07-16
DOI
https://doi.org/10.2514/6.2025-4031
Primary Topic
Planetary Science and Exploration
Type
article
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article

Full Lunar Surface Visualization and Simulation Platform

Thomas E. Diegelman, Thomas Duncavage, Terrence Mayes
Planetary Science and Exploration
article

Full Lunar Surface Visualization and Simulation Platform

Thomas E. Diegelman, Thomas Duncavage, Terrence Mayes
article en

Abstract

This paper documents the results and techniques of innovative work on a visualization and simulation environment for the entire surface of the moon. The outcome was a tool suite capable of supporting design, test, training, verification, and mission planning / support. The approach involves using fractal mathematics to generate the highest possible detail from 60 meter baseline Lunar Reconnaissance Orbiter (LRO) data. It also calculates estimates of surface reflectivity and lighting direction based on terrain imagery and elevation data. Upgrades to the system have enabled support for man-in-the-loop simulation, interaction, stereo viewing, and immersion. This level of detail is required to conduct accurate integrated crew / vehicle risk assessment throughout the design-to-disposal life cycle. This process starts with safety assessments of integrated hardware / software / crew / and support environments. Unlike the Apollo Program, the Artemis Program is not risk tolerant. Next steps will involve extending these capabilities to the Martian surface, thereby adding value across the entire Moon-to-Mars effort.

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Full Lunar Surface Visualization and Simulation Platform — Thomas E. Diegelman, Thomas Duncavage, et al. · (2025) | TGRS Research Map | TGRS