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The case for a multi-channel polarization sensitive LIDAR for investigation of insolation-driven ices and atmospheres
All LIDAR instruments are not the same, and advancement of LIDAR technology requires an ongoing interest and demand from the community to foster further development of the required components. The purpose of this white paper is to make the decadal survey panel aware of the need for further technical development, and the potential payoff of investing experimental time, money and thought into the next generation of LIDARs. Technologies for development:​ We advocate for future development of LIDAR technologies to measure the ​polarization​ state of the reflected light at ​selected multiple wavelengths,​ chosen according to the species of interest (e.g., H​2​O and CO​2​ in the Martian setting).Key scientific questions: ​In the coming decade, dollars spent on these LIDAR technologies will go towards addressing key climate questions on Mars and other rocky bodies, particularly those with seasonally changing (i.e. insolation driven) plumes of multiple icy volatiles such as Mars, Enceladus, Triton, or Pluto, and insolation-driven dust lifting, such as cometary bodies and the Moon. We will show from examining past Martian and terrestrial lidars that orbital and landed LIDARs can be effective for producing new insights into insolation-driven processes in current planetary climate on several bodies, beyond that available to our current fleet of largely passive instruments on planetary missions
Document ID
20205005981
Acquisition Source
Goddard Space Flight Center
Document Type
White Paper
Authors
Adrian Jon Brown
(Arctic Slope Technical Services, Inc.)
Gorden Videen
(Space Science Institute)
Evgenij Zubko
(Kyung Hee University Seoul, South Korea)
Nicholas Heavens
(Space Science Institute)
Nicole Jeanne Schlegel
(Jet Propulsion Laboratory)
Patricio Becerra
(University of Bern Bern, Switzerland)
Young-Jun Choi
(KASI)
Colin R. Meyer
(Dartmouth College Hanover, New Hampshire, United States)
Tanya N. Harrison
(Outer Space Institute)
Paul Hayne
(University of Colorado Boulder Boulder, Colorado, United States)
Rachel Wyndham Obbard
(Search for Extraterrestrial Intelligence Mountain View, California, United States)
Tim Michaels
(Search for Extraterrestrial Intelligence Mountain View, California, United States)
Michael J Wolff
(Space Science Institute)
Scott D Guzewich
(Goddard Space Flight Center Greenbelt, Maryland, United States)
Yongxiang Hu
(Langley Research Center Hampton, Virginia, United States)
Claire Newman
(Aeolis Research (United States) Pasadena, California, United States)
Chae Kyung Sim
(Kyung Hee University Seoul, South Korea)
Peter Benjamin Buhler
(Jet Propulsion Lab La Cañada Flintridge, California, United States)
Margaret E Landis
(CU LASP)
Timothy John Stubbs
(Goddard Space Flight Center Greenbelt, Maryland, United States)
Aymeric Spiga
(Laboratoire de Météorologie Dynamique Palaiseau, France)
Devanshu Jha
(MVJCE)
Date Acquired
August 5, 2020
Publication Date
August 5, 2020
Publication Information
Publication: Planetary Science and Astrobiology Decadal Survey 2023-2032
Publisher: National Academy of Science
Subject Category
Lasers And Masers
Funding Number(s)
WBS: 432938.11.01.04.07.01.08
Distribution Limits
Public
Copyright
Portions of document may include copyright protected material.
Technical Review
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