Lauren Gold, Kyle Sese, A. Bahremand, Alexander Gonzalez, Connor Richards, Zoe Purcell, J. Hertzberg, K. Powell, R. Likamwa
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Visualizing Planetary Spectroscopy through Immersive On-Site Rendering
Remote sensing is currently the primary method of obtaining knowledge about the composition and physical properties of the surface of other planets. In a commonly used technique, visible and near-infrared (VNIR) spectrometers onboard orbiting satellites capture reflectance data at different wavelengths, which in turn gives insight about the minerals present and the overall composition of the terrain. In select locations on Mars, rovers have also conducted up close in-situ investigation of the same terrains examined by orbiters, allowing direct comparisons at different spatial scales. In this work, we build Planetary Prism, a virtual reality tool to visualize orbital and ground data around NASA’s Mars Science Laboratory Curiosity rover’s ongoing traverse in Gale Crater. We have built a 3D terrain along Curiosity’s traverse using rover images, and within it we visualize satellite data as polyhedrons, superimposed on the terrain. This system provides perspectives of VNIR spectroscopic data from a satellite aligned with ground images from the rover, allowing the user to explore both the physical aspects of the terrain and their relation to the mineral composition. The result is a system that provides seamless rendering of data sets at vastly different scales.