DocumentCode
2787461
Title
Mars Aeronomy Explorer (MAX): study employing distributed microspacecraft
Author
Shotwell, R. ; Gray, A. ; Illsley, P. ; Johnson, M. ; Sherwood, R. ; Vozoff, M. ; Ziemer, J.
Author_Institution
Jet Propulsion Lab., California Inst. of Technol., Pasadena, CA, USA
fYear
2005
fDate
5-12 March 2005
Firstpage
167
Lastpage
176
Abstract
An overview of a Mars Aeronomy Explorer (MAX) mission design study performed at NASA´s Jet Propulsion Laboratory is presented herein. The mission design consists of ten microspacecraft orbiters launched on a Delta IV to Mars polar orbit to determine the spatial, diurnal and seasonal variation of the constituents of the Martian upper atmosphere and ionosphere over the course of one Martian year. The spacecraft are designed to allow penetration of the upper atmosphere to at least 90 km. This property coupled with orbit precession will yield knowledge of the nature of the solar wind interaction with Mars, the influence of the Mars crustal magnetic field on ionospheric processes, and the measurement of present thermal and nonthermal escape rates of atmospheric constituents. The mission design incorporates alternative design paradigms that are more appropriate for - and in some cases motivate-distributed microspacecraft. These design paradigms are not defined by a simple set of rules, but rather a way of thinking about the function of instruments, mission reliability/risk, and cost in a systemic framework.
Keywords
Mars; planetary atmospheres; solar wind; space vehicles; Delta IV; MAX; Mars Aeronomy Explorer; Mars crustal magnetic field; Mars polar orbit; Martian ionosphere; Martian upper atmosphere; NASA Jet Propulsion Laboratory; distributed microspacecraft; microspacecraft orbiters; mission reliability; mission risk; solar wind interaction; Atmosphere; Atmospheric measurements; Couplings; Ionosphere; Laboratories; Magnetic field measurement; Magnetic properties; Mars; Propulsion; Space vehicles;
fLanguage
English
Publisher
ieee
Conference_Titel
Aerospace Conference, 2005 IEEE
Conference_Location
Big Sky, MT
Print_ISBN
0-7803-8870-4
Type
conf
DOI
10.1109/AERO.2005.1559310
Filename
1559310
Link To Document