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Image of Jupiter's Great Red Spot from Voyager 1

Image of Jupiter's Great Red Spot, obtained during the fly-by of Jupiter by NASA's Voyager 1 spacecraft in 1979.

Credit: NASA/JPL

Prof. Peter Read

Emeritus/researcher

Research theme

  • Climate physics
  • Exoplanets and planetary physics

Sub department

  • Atmospheric, Oceanic and Planetary Physics

Research groups

  • Geophysical and Astrophysical Fluid Dynamics
  • Planetary Climate Dynamics
Peter.Read@physics.ox.ac.uk
Telephone: 01865 (2)72082
Atmospheric Physics Clarendon Laboratory, room 210
  • About
  • Publications

Stochastic resonance in a nonlinear model of a rotating, stratified shear flow, with a simple stochastic inertia-gravity wave parameterization

NONLINEAR PROCESSES IN GEOPHYSICS 11:1 (2004) 127-135

Authors:

PD Williams, TWN Haine, PL Read
More details from the publisher

The Martian climate revisited

Springer Verlag, 2004

Authors:

Peter L Read, Stephen R Lewis

Abstract:

latest techniques of atmospheric modelling, The Martian Climate Revisited provides a comprehensive summary of our knowledge and current understanding of the meteorology and climate of Mars from the viewpoint of atmospheric scientists .

The effect of a global dust storm on simulations of the Martian water cycle -: art. no. L22702

GEOPHYSICAL RESEARCH LETTERS 31:22 (2004) ARTN L22702

Authors:

HM Böttger, SR Lewis, PL Read, F Forget
More details from the publisher

Upper atmosphere of Mars up to 120 km:: Mars Global Surveyor accelerometer data analysis with the LMD general circulation model -: art. no. E01011

JOURNAL OF GEOPHYSICAL RESEARCH-PLANETS 109:E1 (2004) ARTN E01011

Authors:

MAI Coll, F Forget, MA López-Valverde, PL Read, SR Lewis
More details from the publisher

Equatorial jets in the dusty Martian atmosphere

Journal of Geophysical Research: Planets 108:4 (2003)

Authors:

SR Lewis, PL Read

Abstract:

We investigate the production of equatorial jets which demostrate strong local superrotation in an atmospheric general circulation model of Mars. These westerly jets are driven by diurnal thermal tides, and their strength is shown to be closely related to the amount of dust in the atmosphere. The superrotating jets are strongest near to equinox and under conditions of high atmospheric dust loading. If there is sufficient dust, in amounts corresponding to dust storm conditions, the westerly equatorial jets can occur at any time of year and reach speeds of over 40 m/s, peaking between 10 and 20 km altitude. For more moderate dust amounts, typical of background levels on Mars, the jets are still strong when the subsolar point is close to the equator and latitudinally symmetric tidal modes are forced. Strong easterly retrograde winds are also found high above the equator, and it is shown that the thermal tides play a major role in their formation. This process is especially relevant close to equinox when the cross-equatorial meridional circulation is weak.
More details from the publisher

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