P13E:
Using Topography to Investigate the Evolution of Solar System Bodies I Posters
Submit an Abstract to this Session
P13E:
Using Topography to Investigate the Evolution of Solar System Bodies I Posters
Using Topography to Investigate the Evolution of Solar System Bodies I Posters
Session ID#: 26201
Session Description:
Spacecraft data have enabled the surface topography of many solar system bodies to be determined. These data provide insight into near-surface processes and properties that exist over the visible history of a body, on global and local scales. We invite abstracts on any topic in which topography plays a role. These may describe theoretical investigations, laboratory studies or data analysis of any body in the solar system and can include (but are not limited to): topographic measurements that are indicative of the types of surface terrain or environments present; processes that create or erase/erode surface topography at any scale; and subsurface processes that are expressed by surface topography.
Primary Convener: Gerald Patterson, Johns Hopkins University Applied Physics Laboratory, Laurel, MD, United States
Conveners: Ross A Beyer, NASA Ames Research Center, Moffett Field, CA, United States and Erwan Mazarico, NASA Goddard Space Flight Center, Greenbelt, MD, United States
Chairs: Gerald Patterson, Applied Physics Laboratory Johns Hopkins, Laurel, United States, Erwan Mazarico, NASA Goddard Space Flight Center, Greenbelt, MD, United States and Ross A Beyer, SETI Institute Mountain View, Sagan Center, Mountain View, United States
OSPA Liaison: Erwan Mazarico, NASA Goddard Space Flight Center, Greenbelt, MD, United States
Index Terms:
5464 Remote sensing [PLANETARY SCIENCES: SOLID SURFACE PLANETS]
5494 Instruments and techniques [PLANETARY SCIENCES: SOLID SURFACE PLANETS]
5499 General or miscellaneous [PLANETARY SCIENCES: SOLID SURFACE PLANETS]
Abstracts Submitted to this Session:
SPCOLA: Combining laser altimetry and stereophotoclinometery to obtain topography for Bennu (251584)
Topographic influence on thermo-rheologic modeling of the lava flows of Daedalia Planum, Mars (244850)
See more of: Planetary Sciences
