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Toward More Realistic Simulation and Prediction of Dust Storms on Mars
  • +36
  • Claire E Newman,
  • Tanguy Bertrand,
  • Joseph Battalio,
  • Mackenzie Day,
  • Manuel de la Torre Juarez,
  • Meredith K Elrod,
  • Francesca Esposito,
  • Lori K Fenton,
  • Claus Gebhardt,
  • Steven J Greybush,
  • Scott D Guzewich,
  • Melinda A Kahre,
  • Henrik Kahanpää,
  • Özgür Karatekin,
  • Brian Jackson,
  • Mathieu Lapotre,
  • Christopher Lee,
  • Stephen R Lewis,
  • Ralph D Lorenz,
  • Germán Martínez Martínez,
  • Javier Martin-Torres,
  • Michael A Mischna,
  • Luca Montabone,
  • Lynn Neakrase,
  • Alexey Pankine,
  • Jorge Pla-Garcia,
  • Peter L Read,
  • Isaac B Smith,
  • Michael D Smith,
  • Alejandro Soto,
  • Aymeric Spiga,
  • Christy Swann,
  • Leslie Tamppari,
  • Orkun Temel,
  • Daniel Viúdez Moreiras,
  • Danika Wellington,
  • Paulina Wolkenberg,
  • Gerhard Wurm,
  • María-Paz Zorzano
Claire E Newman
Aeolis Research

Corresponding Author:[email protected]

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Tanguy Bertrand
NASA Ames
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Joseph Battalio
Yale
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Mackenzie Day
UCLA
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Manuel de la Torre Juarez
Jet Propulsion Laboratory
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Meredith K Elrod
NASA Goddard Space Flight Center
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Francesca Esposito
Istituto Nazionale di Astrofisica-Osservatorio Astronomico Cagliari
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Lori K Fenton
SETI Institute
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Claus Gebhardt
United Arab Emirates University
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Steven J Greybush
Penn State University
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Scott D Guzewich
NASA Goddard Space Flight Center
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Melinda A Kahre
NASA Ames
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Henrik Kahanpää
Finnish Meteorological Institute
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Özgür Karatekin
Royal Observatory of Belgium
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Brian Jackson
Boise State University
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Mathieu Lapotre
Stanford University
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Christopher Lee
Aeolis Research
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Stephen R Lewis
Open University
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Ralph D Lorenz
Applied Physics Laboratory
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Germán Martínez Martínez
Lunar and Planetary Institute
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Javier Martin-Torres
Aberdeen University
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Michael A Mischna
Jet Propulsion Laboratory
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Luca Montabone
Space Studies Institute
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Lynn Neakrase
New Mexico State University
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Alexey Pankine
Space Studies Institute
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Jorge Pla-Garcia
Centro de Astrobiología - Instituto Nacional de Técnica Aeroespacial
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Peter L Read
University of Oxford
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Isaac B Smith
Planetary Science Institute
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Michael D Smith
NASA Goddard Space Flight Center
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Alejandro Soto
Southwest Research Institute
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Aymeric Spiga
Sorbonne University
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Christy Swann
Naval Research Laboratory Stennis Space Center
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Leslie Tamppari
Jet Propulsion Laboratory
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Orkun Temel
Royal Observatory of Belgium
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Daniel Viúdez Moreiras
Centro de Astrobiología - Instituto Nacional de Técnica Aeroespacial
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Danika Wellington
Arizona State University
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Paulina Wolkenberg
Istituto Nazionale di Astrofisica
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Gerhard Wurm
University of Duisburg-Essen
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María-Paz Zorzano
Centro de Astrobiología - Instituto Nacional de Técnica Aeroespacial
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Abstract

Atmospheric dust is a more extreme modifier of weather and climate on Mars than water vapor is on Earth. Global dust storms enshroud Mars in a veil of dust for months and have major implications for past and present climate, geologic history, habitability, and exploration. Yet their mysterious origins mean we remain unable to realistically simulate or predict them. In this White Paper, we find that key Knowledge Gaps are: A. how dust is lifted; B. constraints on near-surface winds and boundary-layer processes; C. the distribution of mobile surface dust; and D. the key processes and feedbacks by which dust storms begin and evolve. To make progress in the next decade, we make four Recommendations in order of priority: #1. Properly accommodate a minimum payload of meteorological and aeolian sensors on future Mars surface missions; #2. Continue orbital monitoring of the evolving surface dust distribution; #3. Expand orbital measurements to include winds and full diurnal coverage; and #4. Continue orbital monitoring and add surface measurements of aerosols during dust storms.
18 Mar 2021Published in Bulletin of the AAS volume 53 issue 4. 10.3847/25c2cfeb.726b0b65