Thermal inertia and bolometric Bond albedo values for Mimas, Enceladus, Tethys, Dione, Rhea and Iapetus as derived from Cassini/CIRS measurements

Icarus Elsevier 206:2 (2010) 573-593

Authors:

CJA Howett, JR Spencer, J Pearl, M Segura

Structure and dynamics of the Martian lower and middle atmosphere as observed by the Mars Climate Sounder: Seasonal variations in zonal mean temperature, dust, and water ice aerosols

Journal of Geophysical Research: Planets 115:12 (2010)

Authors:

DJ McCleese, NG Heavens, JT Schofield, WA Abdou, JL Bandfield, SB Calcutt, PGJ Irwin, DM Kass, A Kleinböhl, SR Lewis, DA Paige, PL Read, MI Richardson, JH Shirley, FW Taylor, N Teanby, RW Zurek

Abstract:

The first Martian year and a half of observations by the Mars Climate Sounder aboard the Mars Reconnaissance Orbiter has revealed new details of the thermal structure and distributions of dust and water ice in the atmosphere. The Martian atmosphere is shown in the observations by the Mars Climate Sounder to vary seasonally between two modes: a symmetrical equinoctial structure with middle atmosphere polar warming and a solstitial structure with an intense middle atmosphere polar warming overlying a deep winter polar vortex. The dust distribution, in particular, is more complex than appreciated before the advent of these high (∼5 km) vertical resolution observations, which extend from near the surface to above 80 km and yield 13 dayside and 13 nightside pole-to-pole cross sections each day. Among the new features noted is a persistent maximum in dust mass mixing ratio at 15-25 km above the surface (at least on the nightside) during northern spring and summer. The water ice distribution is very sensitive to the diurnal and seasonal variation of temperature and is a good tracer of the vertically propagating tide. Copyright 2010 by the American Geophysical Union.

The lunar reconnaissance orbiter diviner lunar radiometer experiment

Space Science Reviews 150:1-4 (2010) 125-160

Authors:

DA Paige, MC Foote, BT Greenhagen, JT Schofield, S Calcutt, AR Vasavada, DJ Preston, FW Taylor, CC Allen, KJ Snook, BM Jakosky, BC Murray, LA Soderblom, B Jau, S Loring, J Bulharowski, NE Bowles, IR Thomas, MT Sullivan, C Avis, EM De Jong, W Hartford, DJ McCleese

Abstract:

The Diviner Lunar Radiometer Experiment on NASA's Lunar Reconnaissance Orbiter will be the first instrument to systematically map the global thermal state of the Moon and its diurnal and seasonal variability. Diviner will measure reflected solar and emitted infrared radiation in nine spectral channels with wavelengths ranging from 0.3 to 400 microns. The resulting measurements will enable characterization of the lunar thermal environment, mapping surface properties such as thermal inertia, rock abundance and silicate mineralogy, and determination of the locations and temperatures of volatile cold traps in the lunar polar regions. © The author(s) 2009.

Correlations between cloud thickness and sub-cloud water abundance on Venus

GEOPHYSICAL RESEARCH LETTERS 37 (2010) ARTN L02202

Authors:

Constantine CC Tsang, Colin F Wilson, Joanna K Barstow, Patrick GJ Irwin, Fredric W Taylor, Kevin McGouldrick, Giuseppe Piccioni, Pierre Drossart, Hakan Svedhem

Diviner Lunar Radiometer Observations of Cold Traps in the Moon's South Polar Region

SCIENCE 330:6003 (2010) 479-482

Authors:

David A Paige, Matthew A Siegler, Jo Ann Zhang, Paul O Hayne, Emily J Foote, Kristen A Bennett, Ashwin R Vasavada, Benjamin T Greenhagen, John T Schofield, Daniel J McCleese, Marc C Foote, Eric DeJong, Bruce G Bills, Wayne Hartford, Bruce C Murray, Carlton C Allen, Kelly Snook, Laurence A Soderblom, Simon Calcutt, Fredric W Taylor, Neil E Bowles, Joshua L Bandfield, Richard Elphic, Rebecca Ghent, Timothy D Glotch, Michael B Wyatt, Paul G Lucey