A Review on Hypothesized Metabolic Pathways on Europa and Enceladus: Space-Flight Detection Considerations
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[1] J. O'Rourke,et al. Slow evolution of Europa’s interior: metamorphic ocean origin, delayed metallic core formation, and limited seafloor volcanism , 2023, Science advances.
[2] F. Postberg,et al. Detection of phosphates originating from Enceladus’s ocean , 2023, Nature.
[3] Jennifer M. Brown,et al. On the identification of hyperhydrated sodium chloride hydrates, stable at icy moon conditions , 2023, Proceedings of the National Academy of Sciences of the United States of America.
[4] S. Kempf,et al. Mapping the surface composition of Europa with SUDA , 2023, Planetary and Space Science.
[5] R. Ferrière,et al. Putative Methanogenic Biosphere in Enceladus's Deep Ocean: Biomass, Productivity, and Implications for Detection , 2022, The Planetary Science Journal.
[6] F. Postberg,et al. Toward Detecting Biosignatures of DNA, Lipids, and Metabolic Intermediates from Bacteria in Ice Grains Emitted by Enceladus and Europa. , 2022, Astrobiology.
[7] M. Hesse,et al. Surface‐To‐Ocean Exchange by the Sinking of Impact Generated Melt Chambers on Europa , 2022, Geophysical Research Letters.
[8] D. Blankenship,et al. Brine Volume Fraction as a Habitability Metric for Europa's Ice Shell , 2022, Geophysical Research Letters.
[9] C. Mertens,et al. Volcanically hosted venting with indications of ultramafic influence at Aurora hydrothermal field on Gakkel Ridge , 2022, Nature Communications.
[10] Karthik Anantharaman,et al. Global patterns of diversity and metabolism of microbial communities in deep-sea hydrothermal vent deposits , 2022, bioRxiv.
[11] D. Catling,et al. Chemical Fractionation Modeling of Plumes Indicates a Gas-rich, Moderately Alkaline Enceladus Ocean , 2022, The Planetary Science Journal.
[12] P. Willis,et al. Detection of Biosignatures by Capillary Electrophoresis Mass Spectrometry in the Presence of Salts Relevant to Ocean Worlds Missions. , 2022, Astrobiology.
[13] W. Kang. Different Ice-shell Geometries on Europa and Enceladus due to Their Different Sizes: Impacts of Ocean Heat Transport , 2022, The Astrophysical Journal.
[14] M. Hesse,et al. Downward Oxidant Transport Through Europa's Ice Shell by Density‐Driven Brine Percolation , 2022, Geophysical Research Letters.
[15] P. Wurz,et al. Toward Detecting Polycyclic Aromatic Hydrocarbons on Planetary Objects with ORIGIN , 2022, The Planetary Science Journal.
[16] W. J. Lowe,et al. Metabolic Strategies Shared by Basement Residents of the Lost City Hydrothermal Field , 2022, bioRxiv.
[17] C. Sotin,et al. Theoretical Considerations on the Characteristic Timescales of Hydrogen Generation by Serpentinization Reactions on Enceladus , 2022, Journal of Geophysical Research: Planets.
[18] Konstantin O. Zamuruyev,et al. Europan Molecular Indicators of Life Investigation (EMILI) for a Future Europa Lander Mission , 2022, Frontiers in Space Technologies.
[19] M. Sephton,et al. Mass Spectrometric Fingerprints of Bacteria and Archaea for Life Detection on Icy Moons. , 2022, Astrobiology.
[20] M. Lo,et al. Science Goals and Mission Architecture of the Europa Lander Mission Concept , 2022, The Planetary Science Journal.
[21] L. Barge,et al. Determining the "Biosignature Threshold" for Life Detection on Biotic, Abiotic, or Prebiotic Worlds. , 2021, Astrobiology.
[22] J. L. Parra,et al. Enceladus as a Potential Niche for Methanogens and Estimation of Its Biomass , 2021, Life.
[23] C. Cockell,et al. Instantaneous Habitable Windows in the Parameter Space of Enceladus' Ocean , 2021, Journal of Geophysical Research: Planets.
[24] Benjamin M. Butler,et al. Laboratory exploration of mineral precipitates from Europa’s subsurface ocean , 2021, Journal of applied crystallography.
[25] N. Renno,et al. Complex Brines and Their Implications for Habitability , 2021, Life.
[26] A. McEwen,et al. The Science Case for a Return to Enceladus , 2021, The Planetary Science Journal.
[27] D. Blankenship,et al. Ice Shell Structure and Composition of Ocean Worlds: Insights from Accreted Ice on Earth. , 2021, Astrobiology.
[28] A. Knížek,et al. Abiotic Formation of Methane and Prebiotic Molecules on Mars and Other Planets , 2021 .
[29] G. Tobie,et al. Short lifespans of serpentinization in the rocky core of Enceladus: Implications for hydrogen production , 2021, Icarus.
[30] F. Postberg,et al. The Enceladus Orbilander Mission Concept: Balancing Return and Resources in the Search for Life , 2021, The Planetary Science Journal.
[31] Y. Sekine,et al. The role of hydrothermal sulfate reduction in the sulfur cycles within Europa: Laboratory experiments on sulfate reduction at 100 MPa , 2021 .
[32] F. Postberg,et al. Oxidation processes diversify the metabolic menu on Enceladus , 2020, 2012.08582.
[33] D. Blankenship,et al. Brine Migration and Impact‐Induced Cryovolcanism on Europa , 2020, Geophysical Research Letters.
[34] J. Spitale,et al. The formation of Enceladus' Tiger Stripe Fractures from eccentricity tides , 2020 .
[35] C. Glein,et al. A Metamorphic Origin for Europa's Ocean , 2020, Geophysical research letters.
[36] S. Howell. The Likely Thickness of Europa’s Icy Shell , 2020, The Planetary Science Journal.
[37] E. Tziperman,et al. Dynamic Europa ocean shows transient Taylor columns and convection driven by ice melting and salinity , 2020, Nature Communications.
[38] F. Postberg,et al. Discriminating Abiotic and Biotic Fingerprints of Amino Acids and Fatty Acids in Ice Grains Relevant to Ocean Worlds. , 2020, Astrobiology.
[39] S. Ruff,et al. Stromatolitic digitate sinters form under wide‐ranging physicochemical conditions with diverse hot spring microbial communities , 2020, Geobiology.
[40] R. Pappalardo,et al. NASA’s Europa Clipper—a mission to a potentially habitable ocean world , 2020, Nature Communications.
[41] G. Choblet,et al. Tidally Heated Convection and the Occurrence of Melting in Icy Satellites: Application to Europa , 2020, Journal of Geophysical Research: Planets.
[42] C. Glein,et al. The Carbonate Geochemistry of Enceladus' Ocean , 2020, Geophysical Research Letters.
[43] M. Hedman,et al. Characterizing deposits emplaced by cryovolcanic plumes on Europa , 2020, Icarus.
[44] R. Taubner,et al. Microbial Diversity and Biosignatures: An Icy Moons Perspective , 2020, Space Science Reviews.
[45] W. Brazelton,et al. Habitability of the marine serpentinite subsurface: a case study of the Lost City hydrothermal field , 2020, Philosophical Transactions of the Royal Society A.
[46] F. Postberg,et al. Low-mass nitrogen-, oxygen-bearing, and aromatic compounds in Enceladean ice grains , 2019, Monthly Notices of the Royal Astronomical Society.
[47] Michael E. Brown,et al. Sodium chloride on the surface of Europa , 2019, Science Advances.
[48] K. Hand,et al. Follow the Oxygen: Comparative Histories of Planetary Oxygenation and Opportunities for Aerobic Life. , 2019, Astrobiology.
[49] R. Pappalardo,et al. Can Earth-like plate tectonics occur in ocean world ice shells? , 2019, Icarus.
[50] E. Shock,et al. The Europa Clipper MASPEX Europa Investigation , 2019 .
[51] Nancy Merino,et al. Living at the Extremes: Extremophiles and the Limits of Life in a Planetary Context , 2019, Front. Microbiol..
[52] Sona Hosseini,et al. The NASA Roadmap to Ocean Worlds , 2018, Astrobiology.
[53] K. Nealson,et al. Genomic and in-situ Transcriptomic Characterization of the Candidate Phylum NPL-UPL2 From Highly Alkaline Highly Reducing Serpentinized Groundwater , 2018, Front. Microbiol..
[54] C. Schleper,et al. Simulating putative Enceladus-like conditions: The possibility of biological methane production on Saturn’s icy moon , 2018, Proceedings of the International Astronomical Union.
[55] X. Morgan,et al. Microbial biogeography of 925 geothermal springs in New Zealand , 2018, Nature Communications.
[56] Mary A. Voytek,et al. The Ladder of Life Detection , 2018, Astrobiology.
[57] F. Postberg,et al. Macromolecular organic compounds from the depths of Enceladus , 2018, Nature.
[58] C. Schleper,et al. Biological methane production under putative Enceladus-like conditions , 2018, Nature Communications.
[59] W. Brazelton,et al. Deeply-sourced formate fuels sulfate reducers but not methanogens at Lost City hydrothermal field , 2018, Scientific Reports.
[60] Douglas Galante,et al. Microbial habitability of Europa sustained by radioactive sources , 2018, Scientific Reports.
[61] K. Hand,et al. The Possible Emergence of Life and Differentiation of a Shallow Biosphere on Irradiated Icy Worlds: The Example of Europa , 2017, Astrobiology.
[62] C. Plainaki,et al. Water Ice Radiolytic O2, H2, and H2O2 Yields for Any Projectile Species, Energy, or Temperature: A Model for Icy Astrophysical Bodies , 2017 .
[63] Gabriel Tobie,et al. Powering prolonged hydrothermal activity inside Enceladus , 2017 .
[64] C. Porco,et al. Could It Be Snowing Microbes on Enceladus? Assessing Conditions in Its Plume and Implications for Future Missions , 2017, Astrobiology.
[65] L. White,et al. Experimentally Testing Hydrothermal Vent Origin of Life on Enceladus and Other Icy/Ocean Worlds. , 2017, Astrobiology.
[66] Mark E. Perry,et al. Cassini finds molecular hydrogen in the Enceladus plume: Evidence for hydrothermal processes , 2017, Science.
[67] Susana E. Deustua,et al. Active Cryovolcanism on Europa? , 2017, 1704.04283.
[68] A. McMinn,et al. Sea ice, extremophiles and life on extra-terrestrial ocean worlds , 2017, International Journal of Astrobiology.
[69] A. Rivoldini,et al. Enceladus's and Dione's floating ice shells supported by minimum stress isostasy , 2016, 1610.00548.
[70] Gabriel Tobie,et al. Enceladus's internal ocean and ice shell constrained from Cassini gravity, shape, and libration data , 2016 .
[71] K. Hand,et al. Geophysical controls of chemical disequilibria in Europa , 2016 .
[72] F. Poulet,et al. VLT/SINFONI OBSERVATIONS OF EUROPA: NEW INSIGHTS INTO THE SURFACE COMPOSITION , 2016 .
[73] E. Quataert,et al. Resonance locking as the source of rapid tidal migration in the Jupiter and Saturn moon systems , 2016, 1601.05804.
[74] C. Schleper,et al. Assessing the Ecophysiology of Methanogens in the Context of Recent Astrobiological and Planetological Studies , 2015, Life.
[75] F. Postberg,et al. High-temperature water–rock interactions and hydrothermal environments in the chondrite-like core of Enceladus , 2015, Nature Communications.
[76] Michael E. Brown,et al. SPATIALLY RESOLVED SPECTROSCOPY OF EUROPA: THE DISTINCT SPECTRUM OF LARGE-SCALE CHAOS , 2015, 1510.07372.
[77] J. A. Burns,et al. Enceladus's measured physical libration requires a global subsurface ocean , 2015, 1509.07555.
[78] B. Marsh,et al. Constraining the thickness of Europa’s water–ice shell: Insights from tidal dissipation and conductive cooling , 2015 .
[79] K. Hand,et al. Europa's surface color suggests an ocean rich with sodium chloride , 2015 .
[80] W. McKinnon. Effect of Enceladus's rapid synchronous spin on interpretation of Cassini gravity , 2015 .
[81] Sascha Kempf,et al. Ongoing hydrothermal activities within Enceladus , 2015, Nature.
[82] J. Baross,et al. The pH of Enceladus’ ocean , 2015, 1502.01946.
[83] L. Prockter,et al. Evidence for subduction in the ice shell of Europa , 2014 .
[84] Carolyn C. Porco,et al. HOW THE GEYSERS, TIDAL STRESSES, AND THERMAL EMISSION ACROSS THE SOUTH POLAR TERRAIN OF ENCELADUS ARE RELATED , 2014 .
[85] Robert T. Pappalardo,et al. Europa Clipper Mission Concept: Exploring Jupiter's Ocean Moon , 2014 .
[86] S. W. Asmar,et al. The Gravity Field and Interior Structure of Enceladus , 2014, Science.
[87] Paul D. Feldman,et al. Transient Water Vapor at Europa’s South Pole , 2014, Science.
[88] D. Prialnik,et al. Modeling serpentinization: Applied to the early evolution of Enceladus and Mimas , 2013 .
[89] P. Drossart,et al. JUpiter ICy moons Explorer (JUICE): An ESA mission to orbit Ganymede and to characterise the Jupiter system , 2013 .
[90] M. E. Brown,et al. SALTS AND RADIATION PRODUCTS ON THE SURFACE OF EUROPA , 2013, 1303.0894.
[91] G. Schubert,et al. Keeping Enceladus warm , 2012 .
[92] G. Schubert,et al. A whole-moon thermal history model of Europa: Impact of hydrothermal circulation and salt transport , 2012 .
[93] Richard Greenberg,et al. Acidification of Europa's subsurface ocean as a consequence of oxidant delivery. , 2012, Astrobiology.
[94] G. W. Patterson,et al. Active formation of ‘chaos terrain’ over shallow subsurface water on Europa , 2011, Nature.
[95] Thomas M. McCollom,et al. Catabolic and anabolic energy for chemolithoautotrophs in deep-sea hydrothermal systems hosted in different rock types , 2011 .
[96] J. Baross,et al. Physiological Differentiation within a Single-Species Biofilm Fueled by Serpentinization , 2011, mBio.
[97] R. Srama,et al. A salt-water reservoir as the source of a compositionally stratified plume on Enceladus , 2011, Nature.
[98] W. S. Lewis,et al. Liquid water on Enceladus from observations of ammonia and 40Ar in the plume , 2009, Nature.
[99] F. Postberg,et al. Sodium salts in E-ring ice grains from an ocean below the surface of Enceladus , 2009, Nature.
[100] A. Boetius,et al. Thriving in Salt , 2009, Science.
[101] Yahai Lu,et al. Life without light: microbial diversity and evidence of sulfur- and ammonium-based chemolithotrophy in Movile Cave , 2009, The ISME Journal.
[102] C. McKay,et al. The possible origin and persistence of life on Enceladus and detection of biomarkers in the plume. , 2008, Astrobiology.
[103] W. Martin,et al. Hydrothermal vents and the origin of life , 2008, Nature Reviews Microbiology.
[104] W. Whitman,et al. Metabolic, Phylogenetic, and Ecological Diversity of the Methanogenic Archaea , 2008, Annals of the New York Academy of Sciences.
[105] Christopher F Chyba,et al. Energy, chemical disequilibrium, and geological constraints on Europa. , 2007, Astrobiology.
[106] Jennifer M. Brown,et al. Hydrothermal systems in small ocean planets. , 2007, Astrobiology.
[107] M. Zolotov. An oceanic composition on early and today's Enceladus , 2007 .
[108] V. Orphan,et al. Methyl sulfides as intermediates in the anaerobic oxidation of methane. , 2007, Environmental microbiology.
[109] W. Ip,et al. Cassini Ion and Neutral Mass Spectrometer: Enceladus Plume Composition and Structure , 2006, Science.
[110] G. Neukum,et al. Cassini Observes the Active South Pole of Enceladus , 2006, Science.
[111] Michael T. Madigan,et al. Biodiversity of Methanogenic and Other Archaea in the Permanently Frozen Lake Fryxell, Antarctica , 2006, Applied and Environmental Microbiology.
[112] Thomas M. Orlando,et al. The chemical nature of Europa surface material and the relation to a subsurface ocean , 2005 .
[113] S. Kattenhorn,et al. The great thickness debate: Ice shell thickness models for Europa and comparisons with estimates based on flexure at ridges , 2005 .
[114] Jörg Overmann,et al. An obligately photosynthetic bacterial anaerobe from a deep-sea hydrothermal vent. , 2005, Proceedings of the National Academy of Sciences of the United States of America.
[115] Dana R. Yoerger,et al. A Serpentinite-Hosted Ecosystem: The Lost City Hydrothermal Field , 2005, Science.
[116] J. E. Richards,et al. The Cassini Ion and Neutral Mass Spectrometer (INMS) Investigation , 2004 .
[117] T. Spohn,et al. Thermal-orbital evolution of Io and Europa , 2004 .
[118] J. Baross,et al. Low archaeal diversity linked to subseafloor geochemical processes at the Lost City Hydrothermal Field, Mid-Atlantic Ridge. , 2004, Environmental microbiology.
[119] E. Igenbergs,et al. The Cassini Cosmic Dust Analyzer , 2004 .
[120] Everett L. Shock,et al. A model for low-temperature biogeochemistry of sulfur, carbon, and iron on Europa , 2004 .
[121] Everett L. Shock,et al. Energy for biologic sulfate reduction in a hydrothermally formed ocean on Europa , 2003 .
[122] R. Pappalardo,et al. Estimates of Europa's ice shell thickness from elastically‐supported topography , 2003 .
[123] Tilman Spohn,et al. Oceans in the icy Galilean satellites of Jupiter , 2002 .
[124] R. Carlson,et al. Sulfuric Acid Production on Europa: The Radiolysis of Sulfur in Water Ice , 2002 .
[125] Elisabetta Pierazzo,et al. Cometary Delivery of Biogenic Elements to Europa , 2002 .
[126] R. Sullivan,et al. Morphology of Europan bands at high resolution: A mid‐ocean ridge‐type rift mechanism , 2002 .
[127] Richard B. Hoover,et al. Anaerobic psychrophiles from Alaska, Antarctica, and Patagonia: implications to possible life on Mars and Europa , 2002, SPIE Optics + Photonics.
[128] E. Shock,et al. Composition and stability of salts on the surface of Europa and their oceanic origin , 2001 .
[129] F. Fanale,et al. An experimental estimate of Europa's “ocean” composition independent of Galileo orbital remote sensing , 2001 .
[130] Deborah S. Kelley,et al. An off-axis hydrothermal vent field near the Mid-Atlantic Ridge at 30° N , 2001, Nature.
[131] G. Marion. Carbonate mineral solubility at low temperatures in the Na-K-Mg-Ca-H-Cl-SO , 2001 .
[132] Michael E. Brown,et al. Potassium in Europa's Atmosphere , 2001 .
[133] C. Chyba,et al. Possible ecosystems and the search for life on Europa. , 2001, Proceedings of the National Academy of Sciences of the United States of America.
[134] Jeffrey S. Kargel,et al. Europa's Crust and Ocean: Origin, Composition, and the Prospects for Life , 2000 .
[135] David J. Stevenson,et al. Europa's Ocean--the Case Strengthens , 2000, Science.
[136] C. Chyba,et al. Energy for microbial life on Europa , 2000, Nature.
[137] Thomas M. McCollom,et al. Methanogenesis as a potential source of chemical energy for primary biomass production by autotrophic organisms in hydrothermal systems on Europa , 1999 .
[138] Clark R. Chapman,et al. Does Europa have a subsurface ocean? Evaluation of the geological evidence , 1999 .
[139] Stanley L. Miller,et al. On the Origin of Metabolic Pathways , 1999, Journal of Molecular Evolution.
[140] J. Kirschvink,et al. Life in Ice-Covered Oceans , 1999, Science.
[141] James Charles Granahan,et al. Hydrated salt minerals on Europa's surface from the Galileo near‐infrared mapping spectrometer (NIMS) investigation , 1999 .
[142] R E Johnson,et al. Hydrogen peroxide on the surface of Europa. , 1999, Science.
[143] A. Lane,et al. Europa: Disk-Resolved Ultraviolet Measurements Using the Galileo Ultraviolet Spectrometer , 1998 .
[144] J. K. Crowley,et al. Salts on Europa's surface detected by Galileo's near infrared mapping spectrometer. The NIMS Team. , 1998, Science.
[145] R. Sullivan,et al. Evidence for Separation across a Gray Band on Europa , 1996 .
[146] Hans-Peter Klenk,et al. Picrophilus oshimae and Picrophilus torridus fam. nov., gen. nov., sp. nov., Two Species of Hyperacidophilic, Thermophilic, Heterotrophic, Aerobic Archaea , 1996 .
[147] R. Hill,et al. Discovery of an extended sodium atmosphere around Europa , 1996, Nature.
[148] Keith S. Noll,et al. The albedo spectrum of Europa from 2200 Å to 3300 Å , 1995 .
[149] W. McDonough,et al. The composition of the Earth , 1995 .
[150] P. D. Feldman,et al. Detection of an oxygen atmosphere on Jupiter's moon Europa , 1995, Nature.
[151] Jeffrey S. Kargel,et al. Brine volcanism and the interior structures of asteroids and icy satellites , 1991 .
[152] John A. Baross,et al. Submarine hydrothermal vents and associated gradient environments as sites for the origin and evolution of life , 1985, Origins of life and evolution of the biosphere.
[153] Christopher P. McKay,et al. On the habitability of Europa , 1983 .
[154] H. Prichard. A petrographie study of the process of serpentinisation in ophiolites and the ocean crust , 1979 .
[155] H. White. Coenzymes as fossils of an earlier metabolic state , 1976, Journal of Molecular Evolution.
[156] JOHN S. Lewis. Satellites of the Outer Planets: Their Physical and Chemical Nature , 1971 .
[157] C. German,et al. HOT VENTS BENEATH AN ICY OCEAN THE AURORA VENT FIELD, GAKKEL RIDGE, REVEALED , 2022 .
[158] A. Butterworth,et al. On the Feasibility of Informative Biosignature Measurements Using an Enceladus Plume Organic Analyzer , 2021 .
[159] G. Etiope. Abiotic Methane in Continental Serpentinization Sites: An Overview ☆ , 2017 .
[160] F. Nimmo,et al. The thermal and orbital evolution of Enceladus : observational constraints and models , 2017 .
[161] H. Eicken,et al. The search for life on Europa: limiting environmental factors, potential habitats, and Earth analogues. , 2003, Astrobiology.
[162] T. McCord,et al. Brines exposed to Europa surface conditions , 2002 .
[163] Stephan Kempe,et al. Biogenesis and early life on Earth and Europa: favored by an alkaline ocean? , 2002, Astrobiology.
[164] L. Irwin,et al. Energy cycling and hypothetical organisms in Europa's ocean. , 2002, Astrobiology.
[165] R. A. Jacobson,et al. Europa's differentiated internal structure: inferences from four Galileo encounters. , 1997, Science.
[166] N. Holm. Why are Hydrothermal Systems Proposed as Plausible Environments for the Origin of Life , 1992 .