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The High Inclination Solar Mission (HISM)The High Inclination Solar Mission (HISM) is an out-of-the-ecliptic solar sail mission concept for observing the Sun and the heliosphere. The mission profile is based on the Solar Polar Imager concept: initially spiraling in to a 0.48 AU ecliptic orbit, then increasing the orbital inclination at a rate of up to 10° degrees per year, ultimately reaching a heliographic inclination of >75°.The orbital profile is achieved using solar sails based on the sail design for the Solar Cruiser mission, currently in Phase-A study at NASA Marshall Space Flight Center. An initial instrument complement was assumed for the study, consisting of a combination of remote, in-situ, and plasma wave instruments with a total mass of 66 kg. These provide a comprehensive suite of instruments to study the solar polar regions and connections to the heliosphere. The 7,000 m sail used in the mission assessment is a direct extension of the 4-quadrant 1,666 m Solar Cruiser design and employs the same type of high strength composite boom, deployment mechanism, and membrane technology. The sail system modeled is spun (~1 rpm) to assure required boom characteristics with margin. The spacecraft bus features a fine-pointing 3-axisstabilized instrument platform that allows full science observations as soon as the spacecraft reaches a solar distance of 0.48 AU. The spacecraft provides 95W power to science instruments and 8 Gbit/day downlink capability.
Document ID
20205010630
Acquisition Source
Marshall Space Flight Center
Document Type
Poster
Authors
K. Kobayashi
(Marshall Space Flight Center Redstone Arsenal, Alabama, United States)
L. Johnson
(Marshall Space Flight Center Redstone Arsenal, Alabama, United States)
H. Thomas
(Marshall Space Flight Center Redstone Arsenal, Alabama, United States)
S. McIntosh
(High Altitude Observatory Hawaiian Acres, Hawaii, United States)
D. McKenzie
(Marshall Space Flight Center Redstone Arsenal, Alabama, United States)
J. Newmark
(Goddard Space Flight Center Greenbelt, Maryland, United States)
K. Wright
(Marshall Space Flight Center Redstone Arsenal, Alabama, United States)
Q. Bean
(Marshall Space Flight Center Redstone Arsenal, Alabama, United States)
L. Fabisinski
(Marshall Space Flight Center Redstone Arsenal, Alabama, United States)
P. Capizzo
(Marshall Space Flight Center Redstone Arsenal, Alabama, United States)
K. Clements
(Marshall Space Flight Center Redstone Arsenal, Alabama, United States)
J. Carr
(Marshall Space Flight Center Redstone Arsenal, Alabama, United States)
A. Heaton
(Marshall Space Flight Center Redstone Arsenal, Alabama, United States)
M. Baysinger
(Marshall Space Flight Center Redstone Arsenal, Alabama, United States)
S. Sutherlin
(Marshall Space Flight Center Redstone Arsenal, Alabama, United States)
J. Garcia
(Marshall Space Flight Center Redstone Arsenal, Alabama, United States)
K. Medina
(Roccor (United States) Longmont, Colorado, United States)
D. Turse
(Roccor (United States) Longmont, Colorado, United States)
Date Acquired
November 24, 2020
Subject Category
Astronomy
Spacecraft Design, Testing And Performance
Solar Physics
Meeting Information
Meeting: AGU Fall Meeting
Location: Virtual
Country: US
Start Date: December 1, 2020
End Date: December 17, 2020
Sponsors: American Geophysical Union
Funding Number(s)
WBS: 432938.09.01.08.19.39
Distribution Limits
Public
Copyright
Portions of document may include copyright protected material.
Technical Review
Single Expert
Keywords
solar sail
solar physics
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