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The EnVision Venus orbiter mission, proposed to ESA

Colin Wilson

Visitor

Research theme

  • Exoplanets and planetary physics

Sub department

  • Atmospheric, Oceanic and Planetary Physics

Research groups

  • Planetary atmosphere observation analysis
  • Planetary surfaces
  • Solar system
  • Space instrumentation
Colin.Wilson@physics.ox.ac.uk
Telephone: 07939202151
Atmospheric Physics Clarendon Laboratory, room 209a
  • About
  • Publications

Possible Effects of Volcanic Eruptions on the Modern Atmosphere of Venus

Space Science Reviews Springer 220:3 (2024) 31

Authors:

Colin F Wilson, Emmanuel Marcq, Cédric Gillmann, Thomas Widemann, Oleg Korablev, Nils T Mueller, Maxence Lefèvre, Paul B Rimmer, Séverine Robert, Mikhail Y Zolotov

Abstract:

This work reviews possible signatures and potential detectability of present-day volcanically emitted material in the atmosphere of Venus. We first discuss the expected composition of volcanic gases at present time, addressing how this is related to mantle composition and atmospheric pressure. Sulfur dioxide, often used as a marker of volcanic activity in Earth's atmosphere, has been observed since late 1970s to exhibit variability at the Venus' cloud tops at time scales from hours to decades; however, this variability may be associated with solely atmospheric processes. Water vapor is identified as a particularly valuable tracer for volcanic plumes because it can be mapped from orbit at three different tropospheric altitude ranges, and because of its apparent low background variability. We note that volcanic gas plumes could be either enhanced or depleted in water vapor compared to the background atmosphere, depending on magmatic volatile composition. Non-gaseous components of volcanic plumes, such as ash grains and/or cloud aerosol particles, are another investigation target of orbital and in situ measurements. We discuss expectations of in situ and remote measurements of volcanic plumes in the atmosphere with particular focus on the upcoming DAVINCI, EnVision and VERITAS missions, as well as possible future missions.ISSN:1572-9672ISSN:0038-630

Development and Testing of the Dragonfly Geophysics and Meteorology (DraGMet) WIND Sensor

Institute of Electrical and Electronics Engineers (IEEE) 00 (2024) 1-12

Authors:

Danielle Mortensen, James A Shackford, Kyle R Lowery, Nicholas Seese, Robert Osiander, Ralph D Lorenz, Colin F Wilson

Mars Express: 20 Years of Mission, Science Operations and Data Archiving

Space Science Reviews Springer Nature 220:2 (2024) 25

Authors:

A Cardesin-Moinelo, J Godfrey, E Grotheer, R Blake, S Damiani, S Wood, T Dressler, M Bruno, A Johnstone, L Lucas, J Marin-Yaseli de la Parra, D Merritt, M Sierra, A Määttänen, G Antoja-Lleonart, M Breitfellner, C Muniz, F Nespoli, L Riu, M Ashman, A Escalante, B Geiger, D Heather, A Hepburn, V Pistone, F Raga, R Valles, V Companys, P Martin, C Wilson

The radiometric environment for Mars limb observations by the Mars Sample Return Earth Return Orbiter

Advances in Space Research Elsevier 72:9 (2023) 4048-4063

Authors:

Marek Slipski, Armin Kleinböhl, Daniela Tirsch, Gerhard Kminek, Gregory Jonniaux, Klaus-Dieter Matz, Anni Määttänen, Austin Nicholas, Franck Montmessin, Soren N Madsen, Matthew Abrahamson, Manuel Sanchez-Gestido, Michael A Mischna, Neil Paul Murray, Michael J Wolff, Pierre Blanc-Paques, Fabrice Cipriani, Colin F Wilson, Dmitri Titov, Richard Zurek

Correction to: Venus Evolution Through Time: Key Science Questions, Selected Mission Concepts and Future Investigations

Space Science Reviews Springer 219:8 (2023) 72

Authors:

Thomas Widemann, Suzanne E Smrekar, James B Garvin, Anne Grete Straume-Lindner, Adriana C Ocampo, Mitchell D Schulte, Thomas Voirin, Scott Hensley, M Darby Dyar, Jennifer L Whitten, Daniel C Nunes, Stephanie A Getty, Giada N Arney, Natasha M Johnson, Erika Kohler, Tilman Spohn, Joseph G O’Rourke, Colin F Wilson, Michael J Way, Colby Ostberg, Frances Westall, Dennis Höning, Seth Jacobson, Arnaud Salvador, Guillaume Avice

Abstract:

In the original publication, there has been a discrepancy between values mentioned in the text of Sect. 4.3.3 and in Table 1. The corrected version is provided here: Wrong: The gravity field harmonic coefficients up to an average degree strength of 130 (∼145 km) are generated together with corrections to the spin rate and to the pole right ascension and declination. Correct: The gravity field harmonic coefficients up to an average degree strength of 200 (∼105 km, see Table 1) are generated together with corrections to the spin rate and to the pole right ascension and declination.

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