HR: 08:00h
AN: P11E-01 [Abstracts]
TI: New Insights About Mars From the Creation and Analysis of Mars Global Datasets
AU: * Christensen, P
EM: phil.christensen@asu.edu
AF: Arizona State University, School of Earth and Space Exploration, Tempe, AZ 85284, United
States
AU: Gorelick, N
EM: gorelick@gmail.com
AF: Arizona State University, School of Earth and Space Exploration, Tempe, AZ 85284, United
States
AU: Anwar, S
EM: saadat.anwar@asu.edu
AF: Arizona State University, School of Earth and Space Exploration, Tempe, AZ 85284, United
States
AU: Dickenshied, S
EM: scott.dickenshied@asu.edu
AF: Arizona State University, School of Earth and Space Exploration, Tempe, AZ 85284, United
States
AU: Edwards, C
EM: cedwards@mars.asu.edu
AF: Arizona State University, School of Earth and Space Exploration, Tempe, AZ 85284, United
States
AU: Engle, E
EM: eric.engle@asu.edu
AF: Arizona State University, School of Earth and Space Exploration, Tempe, AZ 85284, United
States
AU: Team, T S
AB:
The past decade has brought a massive influx of new data from Mars and the moons of Jupiter and Saturn, and
equally large volumes will soon be collected from Mercury and the Moon. This influx has created a need for
efficient and effective tools to compile, synthesize, and analyze these data. We have attempted to address these
needs in two basic directions; first to organize and synthesize the data, and second to create a GIS tools that can
ingest and manipulate all of the available planetary data. To date this effort has focused on Mars, but the
approach and methodology are easily applied to any solar system object. We have developed a Java-based
software and database system called JMARS for creating, compiling, and analyzing global data sets. The effort
was begun in direct response to the needs and uses of the Odyssey THEMIS experiment, and the first step has
been to produce a global mosaic of 100-m resolution day and night IR imagery from the THEMIS instrument. This
effort has required mosaicing and geo-referencing JMARS database includes these global maps, together with
global mosaics from Viking and MG MOC, topographic elevation data from MGS MOLA, and global mineral,
albedo, and thermal inertia maps from the MGS TES. In addition, the original images from each of these
missions can easily imported, as can all of the available numeric data. The JMARS database includes special
products such as the image products produced for the Mars Science Laboratory rover landing site selection and
MOC THEMS VIS mosaics created for specific sites. The second phase has been the development GIS
capabilities to display, layer, combine, and process all of the se data. An example of the analysis capability is the
ability to obtain numeric elevation, temperature, albedo, mineral, and thermal inertia profiles on a 100-m
resolution base map, while viewing individual high-resolution MOC imagery of any area of interest. JMARS
performs basic image processing functions and can import and export data in a wide (and growing) variety of
formats. Examples of the scientific applications from this approach include the global mapping of salt deposits,
studies of the stratigraphic relationships among compositional units, mapping of specific olivine-bearing rock
layers over 1,000's of km, the study of bedrock outcrops in relation to erosional processes,
and the ability to investigate processes that produce m-scale morphologies in a regional geologic context.
UR: http://jmars.asu.edu
DE: 5410 Composition (1060, 3672)
DE: 5464 Remote sensing
DE: 5470 Surface materials and properties
DE: 5494 Instruments and techniques
SC: Planetary Sciences [P]
MN: 2007 Fall Meeting