Mineralogy and astrobiology detection using laser remote sensing instrument

• Published in: Applied optics. Optical technology and biomedical optics Vol. 54; no. 25; p. 7598
• Main Authors: Abedin, M Nurul, Bradley, Arthur T, Sharma, Shiv K, Misra, Anupam K, Lucey, Paul G, McKay, Christopher P, Ismail, Syed, Sandford, Stephen P
• Format: Journal Article
• Language: English
• Published: United States 01.09.2015
• ISSN: 2155-3165
• DOI: 10.1364/AO.54.007598

A multispectral instrument based on Raman, laser-induced fluorescence (LIF), laser-induced breakdown spectroscopy (LIBS), and a lidar system provides high-fidelity scientific investigations, scientific input, and science operation constraints in the context of planetary field campaigns with the Jupiter Europa Robotic Lander and Mars Sample Return mission opportunities. This instrument conducts scientific investigations analogous to investigations anticipated for missions to Mars and Jupiter's icy moons. This combined multispectral instrument is capable of performing Raman and fluorescence spectroscopy out to a >100  m target distance from the rover system and provides single-wavelength atmospheric profiling over long ranges (>20  km). In this article, we will reveal integrated remote Raman, LIF, and lidar technologies for use in robotic and lander-based planetary remote sensing applications. Discussions are focused on recently developed Raman, LIF, and lidar systems in addition to emphasizing surface water ice, surface and subsurface minerals, organics, biogenic, biomarker identification, atmospheric aerosols and clouds distributions, i.e., near-field atmospheric thin layers detection for next robotic-lander based instruments to measure all the above-mentioned parameters.