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Chroococcidiopsis

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could aid in the formation of soil on the Martian surface. On Earth, soil is formed by plant, microbial, and geophysical activity on a mineral substrate. The soil produced by chemical weathering of rocks and oxygen produced by photosynthesis could one day provide the conditions necessary for humans
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in arid environments is due in part because it colonizes the underside of translucent rocks. The underside of these rocks provides enough condensed moisture for growth while the rock's translucent nature allows just enough light to reach the organism for photosynthesis to occur.
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is able to survive for long periods in a desiccated state on solar panels, under irradiated conditions. The samples were able to be genetically altered, proving potential future uses, but no specific task was coded into the samples used.
740:"The BOSS and BIOMEX space experiments on the EXPOSE-R2 mission: Endurance of the desert cyanobacterium Chroococcidiopsis under simulated space vacuum, Martian atmosphere, UVC radiation and temperature extremes" 1469: 1456: 1495: 308:
for up to seven years. Biofilms that were either (1) dried or (2) both dried and UV irradiated were able to recover. When these biofilms were rewetted the
851:"Over-Expression of UV-Damage DNA Repair Genes and Ribonucleic Acid Persistence Contribute to the Resilience of Dried Biofilms of the Desert Cyanobacetrium 1443: 285:
that were exposed to simulated Martian atmosphere, UVC radiation and temperature extremes. In 2022, the findings of the experiments were published.
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Morono, Yuki; Ito, Motoo; Hoshino, Tatsuhiko; Terada, Takeshi; Hori, Tomoyuki; Ikehara, Minoru; D’Hondt, Steven; Inagaki, Fumio (28 July 2020).
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could be used in closed systems to produce resources for human-occupied outposts on Mars without altering the planet's surface or atmosphere.
794:"Absence of increased genomic variants in the cyanobacterium Chroococcidiopsis exposed to Mars-like conditions outside the space station" 262:
to grow food on Mars, possibly allowing for permanent human civilizations on the planet. On a shorter time scale, cyanobacteria such as
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Cumbers J, Rothschild LJ (June 2014). "Salt tolerance and polyphyly in the cyanobacterium Chroococcidiopsis (Pleurocapsales)".
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Due to its resistance to harsh environmental conditions, especially low temperature, low moisture, and radiation tolerance,
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Baldanta, Sara; Arnal, Raquel; Blanco-Rivero, Amaya; Guevara, Govinda; Navarro Llorens, Juana MarĂ­a (17 February 2023).
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are able to survive in a dormant state for at least 13 million years, with the ability to reactivate after this time.
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are known for their ability to survive harsh environmental conditions, including both high and low temperatures,
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to the Martian environment to aid in the formation of an aerobic environment. In addition to oxygen production,
1095: 149: 1218: 1211: 1197: 1102: 330: 1574: 1559: 1370: 926: 1408: 559: 1204: 1133: 379: 356:"Taxonomic classification of cyanoprokaryotes (cyanobacterial genera) 2014, using a polyphasic approach" 1536: 1510: 1430: 1126: 805: 751: 650: 593: 1325: 1302: 1249: 1224: 1158: 993: 278: 194:. A diversity of species and cultures exist within the genus, with a diversity of phenotypes. Some 494:"First characterization of cultivable extremophile Chroococcidiopsis isolates from a solar panel" 417: 203: 42: 1422: 907: 687: 1518: 1461: 1330: 1308: 1170: 1119: 886: 831: 767: 668: 619: 533: 515: 474: 456: 409: 162: 1523: 1264: 1062: 1057: 1033: 876: 866: 849:
Mosca C, Rothschild LJ, Napoli A, FerrĂ© F, Pietrosanto M, Fagliarone C, et al. (2019).
821: 813: 759: 658: 609: 601: 582:"Ionizing-radiation resistance in the desiccation-tolerant cyanobacterium Chroococcidiopsis" 523: 505: 464: 448: 401: 1348: 1284: 1254: 1048: 1013: 809: 755: 654: 597: 1340: 1279: 998: 881: 850: 826: 793: 528: 493: 469: 437:"Aerobic microbial life persists in oxic marine sediment as old as 101.5 million years" 436: 274: 179: 132: 792:
Napoli A, Micheletti D, Pindo M, Larger S, Cestaro A, de Vera JP, Billi D (May 2022).
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can photsynthesize in far-red light, and might be suitable for future Mars colonists.
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Verseux C, Baqué M, Lehto K, de Vera JP, Rothschild LJ, Billi D (2015-08-01).
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Billi D, Friedmann EI, Hofer KG, Caiola MG, Ocampo-Friedmann R (April 2000).
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genes encoding UvrA, UvrB and UvrC were over-expressed. This suggests that
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Baqué M, de Vera JP, Rettberg P, Billi D (20 August 2013).
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Weird Low-Light Bacteria Could Potentially Thrive on Mars
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has been thought of as an organism capable of living on
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Exposed to Mars-Like UV Flux and Long-Term Desiccation"
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Komárek J, Kaštovský J, Mareš J, Johansen JR (2014).
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The experiment included samples of 7: 1511:bc19d39e-95b2-49c6-8f29-69410dc2e53d 688:"Exploring Mars in low Earth orbit" 186:, and the only genus in the order 25: 1260:Acidophiles in acid mine drainage 46: 764:10.1016/j.actaastro.2013.05.015 606:10.1128/aem.66.4.1489-1492.2000 382:, Space.com, accessed 6/18/2018 1: 320:contributed to the recovery. 289:UV and desiccation resistance 692:NASA's Astrobiology Magazine 686:Gronstal AL (31 July 2014). 552:"Greening of the Red Planet" 711:Kramer M (18 August 2014). 167:Chroococcidiopsis thermalis 1591: 1245:Abiogenic petroleum origin 1178:Thermococcus gammatolerans 818:10.1038/s41598-022-12631-5 453:10.1038/s41467-020-17330-1 314:nucleotide excision repair 310:nucleotide excision repair 300:were exposed to Mars-like 859:Frontiers in Microbiology 664:10.1017/S147355041500021X 511:10.3389/fmicb.2023.982422 498:Frontiers in Microbiology 147: 140: 43:Scientific classification 41: 34: 1096:Chloroflexus aurantiacus 872:10.3389/fmicb.2019.02312 1219:Halicephalobus mephisto 1212:Paralvinella sulfincola 1198:Cyanidioschyzon merolae 1103:Deinococcus radiodurans 331:Deinococcus radiodurans 269:A space mission called 150:Chroococcopsis gigantea 216:Desiccation resistance 192:Chroococcidiopsidaceae 170: 108:Chroococcidiopsidaceae 1205:Galdieria sulphuraria 1134:Spirochaeta americana 441:Nature Communications 206:, and high salinity. 188:Chroococcidiopsidales 165: 90:Chroococcidiopsidales 18:Chroococcidiopsidales 1565:Cyanobacteria genera 1127:Thermus thermophilus 394:Journal of Phycology 1326:Radiotrophic fungus 1303:Helaeomyia petrolei 1250:Acidithiobacillales 1159:Pyrococcus furiosus 810:2022NatSR..12.8437N 756:2013AcAau..91..180B 655:2016IJAsB..15...65V 598:2000ApEnM..66.1489B 232:A 2023 study found 798:Scientific Reports 204:ionizing radiation 190:and in the family 171: 1547: 1546: 1519:Open Tree of Life 1475:chroococcidiopsis 1409:Chroococcidiopsis 1379:Chroococcidiopsis 1371:Taxon identifiers 1362: 1361: 1309:Hydrothermal vent 1233: 1232: 1171:Pyrolobus fumarii 1120:Thermus aquaticus 909:Chroococcidiopsis 853:Chroococcidiopsis 744:Acta Astronautica 406:10.1111/jpy.12169 298:Chroococcidiopsis 283:Chroococcidiopsis 264:Chroococcidiopsis 259:Chroococcidiopsis 255:Chroococcidiopsis 247:Chroococcidiopsis 241:Mars colonization 234:Chroococcidiopsis 222:Chroococcidiopsis 210:Chroococcidiopsis 200:Chroococcidiopsis 175:Chroococcidiopsis 160: 159: 136: 127:Chroococcidiopsis 117: 99: 36:Chroococcidiopsis 27:Genus of bacteria 16:(Redirected from 1582: 1570:Space-flown life 1540: 1539: 1527: 1526: 1514: 1513: 1504: 1503: 1491: 1490: 1488:NHMSYS0000600783 1478: 1477: 1465: 1464: 1452: 1451: 1439: 1438: 1426: 1425: 1413: 1412: 1411: 1398: 1397: 1396: 1366: 1265:Archaeoglobaceae 1238:Related articles 1083: 1063:Thermoacidophile 1058:Hyperthermophile 1034:Polyextremophile 943: 936: 929: 920: 895: 894: 884: 874: 846: 840: 839: 829: 789: 783: 782: 780: 778: 735: 729: 728: 726: 725: 708: 702: 701: 699: 698: 683: 677: 676: 666: 634: 628: 627: 617: 592:(4): 1489–1492. 577: 571: 570: 568: 567: 558:. 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Index

Chroococcidiopsidales
Scientific classification
Edit this classification
Bacteria
Cyanobacteria
Cyanophyceae
Chroococcidiopsidales
Chroococcidiopsidaceae
Chroococcidiopsis
Geitler
Type species
Chroococcopsis gigantea

photosynthetic
bacterium
extremophile
ionizing radiation
desiccation
Mars
EXPOSE-R2
Progress M-24M
Zvezda
Biofilms
UV
desiccation
nucleotide excision repair
nucleotide excision repair
DNA damages
Deinococcus radiodurans

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