Biological Origin In Martian Theophany, Astrobiologists, NASA’s Curiosity Rover Recently Discovered Several Kinds Of Organic Matter In Martian Sediments
Biological Origin In Martian Theophany

Biological Origin In Martian Theophany, Astrobiologists, NASA’s Curiosity Rover Recently Discovered Several Kinds Of Organic Matter In Martian Sediments

Of biological origin in Martian theophany, astrobiologists, NASA’s Curiosity Rover recently discovered several kinds of organic matter in Martian sediments.


NASA’s Curiosity Rover recently discovered several kinds of organic materials in Martian sediment. A complicated group of organic compounds detected was theophene.


Which is usually found in soil, coal, crude oil, stromatolites, microfossils and, strangely, on Earth, in white truffles, the epicenter and loved mushrooms.

For the wild pigs. 


Astrobiologists Durk Schulz-Makuch and Jacob Heinz believe that the presence of early life on Mars will be accompanied by the presence of Theophenes.


The impression of an artist from a habitable Mars. Image by Deine Ballard / CC BY-SA 3.0. In the study, Drs. Schulz-Makuch and Drs. Heinz explored some possible routes to the origin of the theophenes on Mars.


His work suggests that an organic process, which probably contains bacteria, may have played a role in the existence of an organic compound in Martian soil.


A researcher at Washington State University, Dr. “We have identified several biological pathways for theophytes that are more likely than chemical ones, but we still need evidence,” said Shulze-Makuch.


“If you find theophenos on Earth, you think they are biological, but on Mars, there are times to prove that it should be a little higher.”


Theophylline molecules have four carbon atoms and sulfur atoms arranged in a ring, and both carbon and sulfur are biossential elements. However, a scientist at the Technische Universität Berlin, Dr. Schulz-Makuch.


And Dr. Heinz cannot exclude the non-biological processes that lead to the existence of these compounds on Mars. Weather effects provide a possible abiotic description.


Thiophene can also be done by thermochemical sulfate reduction, a process that involves a set of compounds that are heated to 120 ° C (248 ° F) or more.

In the biological landscape, bacteria.


Which existed 3,000 million years ago when Mars was hot and humid, could facilitate the sulfate reduction process and cause theophenis. There are other routes where thiophene is broken down by the bacteria themselves.


While curiosity has given many clues, it uses techniques that break down large molecules into components, so scientists can only see the resulting fragments.


More evidence should be obtained from the next rover, Rosalind Franklin, which will be launched in July 2020. It will carry the Mars Organic Molecule Analyzer (MOMA).


Which uses a less destructive method of analysis that will allow the collection of larger molecules. The team uses the data collected by the next rover to search for carbon and sulfur isotopes.


The creatures are lazy. They will use lighter isotopic forms of the element, because it costs them less energy, said Dr. Schulz-Makuch said. Organisms vary the proportion of heavy.


And light isotopes in compounds that differ significantly from those found in their basic components, a telltale signal for life. “However, if the next rover returns this isotopic evidence.


It may still not be enough to conclusively prove that life exists or existed on Mars. As Carl Sagan said, ‘extraordinary claims require extraordinary evidence.


I think the test would really need us to send people there, and an astronaut looks through a microscope and sees a dynamic microbe. The team article was published in the journal Astrobiology.

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