title: Estimation, modeling, and simulation of patterned growth in extreme environments.
abstract: In the search for life on Mars and other extraterrestrial bodies or in our attempts to identify biological traces in the most ancient rock record of Earth, one of the biggest problems facing us is how to recognize life or the remains of ancient life in a context very different from our planet's modern biological examples. Specific chemistries or biological properties may well be inapplicable to extraterrestrial conditions or ancient Earth environments. Thus, we need to develop an arsenal of techniques that are of broader applicability. The notion of patterning created in some fashion by biological processes and properties may provide such a generalized property of biological systems no matter what the incidentals of chemistry or environmental conditions. One approach to recognizing these kinds of patterns is to look at apparently organized arrangements created and left by life in extreme environments here on Earth, especially at various spatial scales, different geologies, and biogeochemical circumstances.
authors: California State University, San Bernardino, CA 92407, USA.
authors: B
authors: B
authors: Strader
authors: K E
authors: KE
authors: Schubert
authors: M
authors: M
authors: Quintana
authors: E
authors: E
authors: Gomez
authors: J
authors: J
authors: Curnutt
authors: P
authors: P
authors: Boston
mesh_terms: D019295:Computational Biology; D000458:Cyanobacteria / Q000254:growth & development; D018534:Earth, Planet; D004777:Environment; D018559:Exobiology; D005118:Extraterrestrial Environment; D005580:Fossils; D005844:Geology; D018535:Mars; D055641:Mathematical Concepts; D059013:Microbial Consortia; D008954:Models, Biological; D000069497:Origin of Life; D010363:Pattern Recognition, Automated