Laboratory insights into the chemical and kinetic evolution of several organic molecules under simulated Mars surface UV radiation conditions
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Olivier Poch | Cyril Szopa | S. Kaci | Patrice Coll | Fabien Stalport | O. Poch | P. Coll | C. Szopa | F. Stalport | S. Kaci
[1] J. C. Kapoor,et al. Photo-oxidation of cyanide in aqueous solution by the UV/H2O2 process , 2005 .
[2] G. Flynn. The delivery of organic matter from asteroids and comets to the early surface of Mars , 1996 .
[3] Perry A Gerakines,et al. Glycine's radiolytic destruction in ices: first in situ laboratory measurements for Mars. , 2013, Astrobiology.
[4] Cyril Szopa,et al. UVolution, a photochemistry experiment in low earth orbit: investigation of the photostability of carboxylic acids exposed to mars surface UV radiation conditions. , 2010, Astrobiology.
[5] Richard C. Quinn,et al. Peroxide-Modified Titanium Dioxide: a Chemical Analog of Putative Martian Soil Oxidants , 2004, Origins of life and evolution of the biosphere.
[6] Christopher P. McKay,et al. Reanalysis of the Viking results suggests perchlorate and organics at midlatitudes on Mars , 2010 .
[7] Farid Salama. PAHs in Astronomy - A Review , 2008, Proceedings of the International Astronomical Union.
[8] W. Domcke,et al. Photostability of 9H-adenine: mechanisms of the radiationless deactivation of the lowest excited singlet states , 2005 .
[9] S. Sandford,et al. The Lifetimes of Nitriles (CN) and Acids (COOH) during Ultraviolet Photolysis and Their Survival in Space , 2004 .
[10] James Garry,et al. Analysis and survival of amino acids in Martian regolith analogs , 2006 .
[11] S. Sandford,et al. Infrared Spectroscopy of Matrix Isolated Polycyclic Aromatic Hydrocarbons. 1. PAHs Containing Two to Four Rings , 1998 .
[12] R. Kitson,et al. Infrared Absorption Band Due to Nitrile Stretching Vibration , 1952 .
[13] K. Biemann,et al. Some final conclusions and supporting experiments related to the search for organic compounds on the surface of Mars , 1979 .
[14] H James Cleaves,et al. Carbonaceous meteorites contain a wide range of extraterrestrial nucleobases , 2011, Proceedings of the National Academy of Sciences of the United States of America.
[15] Bernard H. Foing,et al. The ORGANICS experiment on BIOPAN V: UV and space exposure of aromatic compounds , 2007 .
[16] M. Moore,et al. Ultraviolet photolysis and proton irradiation of astrophysical ice analogs containing hydrogen cyanide , 2004 .
[17] R. Garrod,et al. Formation rates of complex organics in UV irradiated CH3OH-rich ices I: Experiments , 2009, 0908.1169.
[18] Paul R. Mahaffy,et al. Methane and related trace species on Mars: Origin, loss, implications for life, and habitability , 2007 .
[19] S. Murchie,et al. Geologic setting of serpentine deposits on Mars , 2010 .
[20] J. Donohue,et al. The structure of urea. Interatomic distances and resonance in urea and related compounds , 1952 .
[21] J. Muller,et al. Experimental determination of photostability and fluorescence‐based detection of PAHs on the Martian surface , 2012 .
[22] Olivier Poch,et al. Chemical evolution of organic molecules under Mars-like UV radiation conditions simulated in the laboratory with the "Mars organic molecule irradiation and evolution" (MOMIE) setup , 2013 .
[23] P. Ribeiro,et al. Photoabsorption of biomolecules and radiation damage – studies in adenine films , 2007 .
[24] Manish R. Patel,et al. Ultraviolet radiation on the surface of Mars and the Beagle 2 UV sensor , 2002 .
[25] M. Barbatti,et al. Ionization potentials of adenine along the internal conversion pathways. , 2011, Physical chemistry chemical physics : PCCP.
[26] Frank J Grunthaner,et al. Perchlorate radiolysis on Mars and the origin of martian soil reactivity. , 2013, Astrobiology.
[27] R. V. Morris,et al. Volatile, Isotope, and Organic Analysis of Martian Fines with the Mars Curiosity Rover , 2013, Science.
[28] A. Negrón-Mendoza,et al. The γ-irradiation of aqueous solutions of urea. Implications for chemical evolution , 1989, Origins of life and evolution of the biosphere.
[29] R. Zare,et al. Observation of Indigenous Polycyclic Aromatic Hydrocarbons in ‘Giant’ carbonaceous Antarctic Micrometeorites , 1998, Origins of life and evolution of the biosphere.
[30] Christopher P. McKay,et al. Laboratory experiments of Titan tholin formed in cold plasma at various pressures: implications for nitrogen-containing polycyclic aromatic compounds in Titan haze , 2004 .
[31] Geochemical Consequences of Widespread Clay Mineral Formation in Mars’ Ancient Crust , 2013 .
[32] C. Snape,et al. Hydropyrolysis of insoluble carbonaceous matter in the Murchison meteorite , 2004 .
[33] I. Shkrob,et al. Light Induced Fragmentation of Polyfunctional Carboxylated Compounds on Hydrated Metal Oxide Particles: From Simple Organic Acids to Peptides , 2009 .
[34] D. Schulze-Makuch,et al. Assessing the plausibility of life on other worlds. , 2001, Astrobiology.
[35] D. Ming,et al. Evidence for Calcium Carbonate at the Mars Phoenix Landing Site , 2009, Science.
[36] S. Langhoff. Theoretical Infrared Spectra for Polycyclic Aromatic Hydrocarbon Neutrals, Cations and Anions , 1996 .
[37] E. Anders,et al. Purines and triazines in the Murchison meteorite , 1975 .
[38] K. Takimiya,et al. Synthesis, properties, crystal structures, and semiconductor characteristics of naphtho[1,2-b:5,6-b']dithiophene and -diselenophene derivatives. , 2010, The Journal of organic chemistry.
[39] N. Mutsukura,et al. Infrared absorption spectroscopy measurements of amorphous CNx films prepared in CH4/N2 r.f. discharge , 1999 .
[40] G. Marcì,et al. Photocatalytic oxidation of cyanides in aqueous titanium dioxide suspensions , 1997 .
[41] R. Woods,et al. Gamma radiolysis of crystalline urea , 1969 .
[42] R. Stephany,et al. A 13C-NMR and IR study of isocyanides and some of their complexes , 1974 .
[43] D. Britt,et al. Methane evolution from UV-irradiated spacecraft materials under simulated martian conditions: Implications for the Mars Science Laboratory (MSL) mission , 2011 .
[44] Bruce M. Jakosky,et al. The planet Mars - From antiquity to the present , 1992 .
[45] Sergey D. Chemerisov,et al. Photocatalytic decomposition of carboxylated molecules on light-exposed martian regolith and its relation to methane production on Mars. , 2010, Astrobiology.
[46] J. Bada,et al. Extraterrestrial Organic Compounds in Meteorites , 2002 .
[47] J. Moores,et al. UV degradation of accreted organics on Mars: IDP longevity, surface reservoir of organics, and relevance to the detection of methane in the atmosphere , 2012 .
[48] Terry Z. Martin,et al. Thermal and albedo mapping of Mars during the Viking primary mission , 1977 .
[49] Andrew Steele,et al. Evidence for perchlorates and the origin of chlorinated hydrocarbons detected by SAM at the Rocknest aeolian deposit in Gale Crater , 2013 .
[50] W. Harwood,et al. Frost-weathering on Mars: Experimental evidence for peroxide formation , 1979, Journal of Molecular Evolution.
[51] Marla H. Moore,et al. Reactions of nitriles in ices relevant to Titan, comets, and the interstellar medium: formation of cyanate ion, ketenimines, and isonitriles , 2004 .
[52] C. Stoker,et al. Subsurface formation of oxidants on Mars and implications for the preservation of organic biosignatures , 2008 .
[53] H. Bloemendal,et al. Cyanate formation in solutions of urea. I. Calculation of cyanate concentrations at different temperature and pH. , 1971, Biochimica et biophysica acta.
[54] R. C. Wiens,et al. Martian Fluvial Conglomerates at Gale Crater , 2013, Science.
[55] G. J. Flynn,et al. The Nature and Distribution of the Organic Material in Carbonaceous Chondrites and Interplanetary Dust Particles , 2006 .
[56] John E. Moores,et al. Slow degradation of ATP in simulated martian environments suggests long residence times for the biosignature molecule on spacecraft surfaces on Mars , 2008 .
[57] G. Flynn,et al. The origin of organic matter in the solar system: Evidence from the interplanetary dust particles , 2003 .
[58] R. Bowden,et al. A Reduced Organic Carbon Component in Martian Basalts , 2012, Science.
[59] Peter H. Smith,et al. The shielding effect of small-scale martian surface geometry on ultraviolet flux , 2007 .
[60] Paul von Ragué Schleyer,et al. Chemical evolution: The mechanism of the formation of adenine under prebiotic conditions , 2007, Proceedings of the National Academy of Sciences.
[61] Stephanie C. Werner,et al. The global martian volcanic evolutionary history , 2009 .
[62] E. Antoniadi. The Planet Mars , 1926, Nature.
[63] J. Cronin,et al. Linear and cyclic aliphatic carboxamides of the Murchison meteorite: hydrolyzable derivatives of amino acids and other carboxylic acids. , 1995, Geochimica et cosmochimica acta.
[64] Bernard H. Foing,et al. The effects of Martian near surface conditions on the photochemistry of amino acids , 2006 .
[65] D. Ming,et al. Volatile and Organic Compositions of Sedimentary Rocks in Yellowknife Bay, Gale Crater, Mars , 2014, Science.
[66] E. Shock,et al. Abiotic synthesis of polycyclic aromatic hydrocarbons on Mars , 1999 .
[67] Y. Farina,et al. Synthesis and characterization of mixed ligand complexes of caffeine, adenine and thiocyanate with some transition metal ions , 2010 .
[68] A. Negrón-Mendoza,et al. Some aspects of the gamma radiolysis of aqueous solutions of urea in the context of chemical evolution , 1986, Origins of life and evolution of the biosphere.
[69] P. Coll,et al. Investigating the photostability of carboxylic acids exposed to Mars surface ultraviolet radiation conditions. , 2009, Astrobiology.
[70] E. Golub,et al. Photocatalytic synthesis of organic compounds from CO and water: Involvement of surfaces in the formation and stabilization of products , 2005, Journal of Molecular Evolution.
[71] Bernard H. Foing,et al. Amino acid photostability on the Martian surface , 2005 .
[72] L. N. Matveeva,et al. The missing organic molecules on Mars. , 2000, Proceedings of the National Academy of Sciences of the United States of America.
[73] Paul Mahaffy,et al. Degradation of the organic molecules in the shallow subsurface of Mars due to irradiation by cosmic rays , 2012 .
[74] Kenneth S Edgett,et al. Evidence for Persistent Flow and Aqueous Sedimentation on Early Mars , 2003, Science.
[75] C. Stoker,et al. Organic degradation under simulated Martian conditions. , 1997, Journal of geophysical research.
[76] C. McKay,et al. The Chemical Reactivity of the Martian Soil and Implications for Future Missions , 1994 .
[77] S. Sandford,et al. The Infrared Spectra of Nitriles and Related Compounds Frozen in Ar and H2O , 1997, The Astrophysical journal.
[78] Charles J. Pouchert. The Aldrich library of infrared spectra , 1970 .
[79] S. Atreya,et al. Solar radiation incident on the Martian surface , 1979, Journal of Molecular Evolution.
[80] Scott A. Sandford,et al. The Photostability of Amino Acids in Space , 2001 .
[81] R. Nyquist. Interpreting Infrared, Raman, and Nuclear Magnetic Resonance Spectra , 2001 .
[82] John M. Ward,et al. Modelling the surface and subsurface Martian radiation environment: Implications for astrobiology , 2007 .
[83] J. Oró,et al. The photolytic degradation and oxidation of organic compounds under simulated Martian conditions , 1979, Journal of Molecular Evolution.
[84] W. R. Thompson,et al. Optical properties of poly-HCN and their astronomical applications. , 1994, Canadian journal of chemistry.
[85] Ryoichi Hayatsu,et al. Orgueil Meteorite: Organic Nitrogen Contents , 1964, Science.
[86] C. McKay,et al. The limitations on organic detection in Mars-like soils by thermal volatilization–gas chromatography–MS and their implications for the Viking results , 2006, Proceedings of the National Academy of Sciences.