Non-Topographic Space-Based Laser Remote Sensing

Yu, Anthony W.; Abshire, James B.; Riris, Haris; Purucker, Michael; Janches, Diego; Getty, Stephanie; Krainak, Michael A.; Stephen, Mark A.; Chen, Jeffrey R.; Li, Steve X.; Numata, Kenji; Fahey, Molly E.; Wu, Stewart; Allan, Graham R.; Konoplev, Oleg

NASA NTRS · 20160007481

Non-Topographic Space-Based Laser Remote Sensing

Yu, Anthony W.·Abshire, James B.·Riris, Haris·Purucker, Michael·Janches, Diego·Getty, Stephanie·Krainak, Michael A.·Stephen, Mark A.·Chen, Jeffrey R.·Li, Steve X.·Numata, Kenji·Fahey, Molly E.·Wu, Stewart·Allan, Graham R.·Konoplev, Oleg

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Abstract

In the past 20+ years, NASA Goddard Space Flight Center (GSFC) has successfully developed and flown lidars for mapping of Mars, the Earth, Mercury and the Moon. As laser and electro-optics technologies expand and mature, more sophisticated instruments that once were thought to be too complicated for space are being considered and developed. We will present progress on several new, space-based laser instruments that are being developed at GSFC. These include lidars for remote sensing of carbon dioxide and methane on Earth for carbon cycle and global climate change; sodium resonance fluorescence lidar to measure environmental parameters of the middle and upper atmosphere on Earth and Mars and a wind lidar for Mars orbit; in situ laser instruments include remote and in-situ measurements of the magnetic fields; and a time-of-flight mass spectrometer to study the diversity and structure of nonvolatile organics in solid samples on missions to outer planetary satellites and small bodies.

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BibTeX RIS

Yu, Anthony W., Abshire, James B., Riris, Haris, Purucker, Michael, Janches, Diego, Getty, Stephanie, Krainak, Michael A., Stephen, Mark A., Chen, Jeffrey R., Li, Steve X., Numata, Kenji, Fahey, Molly E., Wu, Stewart, Allan, Graham R., Konoplev, Oleg. 2016-06-05. Non-Topographic Space-Based Laser Remote Sensing. https://ntrs.nasa.gov/citations/20160007481

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