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General principles for modeling of thermal prebiotic synthesis and protocell self-organization in planetary environment simulators: From non-equilibrium thermodynamics to engineering thermophysics
Oleg V. Gradov
Margaret A. Gradova
Thermal Science and Engineering 2025, 8(3), 9997; https://doi.org/10.24294/tse9997
Submitted：31 Oct 2024
Accepted：06 Nov 2024
Published：13 Nov 2024
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Abstract
This paper considers the problem of achieving plausible and effective (leading to the formation of structures similar to biological ones) conditions for modeling thermally induced prebiotic processes from the perspective of thermodynamics, thermal physics, and thermal engineering. The article’s presentation is based on the principle of transition from thermal physics and thermodynamics to thermal engineering for constructing planetary environment simulators with controlled environmental conditions. Based on the physical premises from the first parts of this comprehensive review, a conclusion is made regarding the need to consider an additional set of controlled physical parameters or additional factors influencing the models of prebiotic synthesis and formation of precellular/protocell structures implemented in planetary environment simulators and hydrothermal synthesis reactors. Non-thermal heating sources are also considered, such as radiofrequency and microwave irradiation for dielectric heating, as well as radioisotope heating in the early Earth/protoplanet conditions. The coexistence of physical and chemical pathways for heating the prebiotic environment and the feasibility of modeling this separation in planetary environment simulators and controllable climate chamber facilities are highlighted. Exothermic reactions during hydrothermal serpentinization are considered as an example of chemical heating in prebiotic environments. This can lead to the abiotic synthesis of organic matter (which correlates well with the existing hypotheses of the origin of life in alkaline hydrothermal vents, with the mineral genesis of protocells and membrane potential generation on inorganic catalytic protomembranes). Thermal proteinoids and thermal proteinoid microspheres that form on their basis are considered an example of purely organic prebiotic structures obtained via hydrothermal heating. It is demonstrated that the application of thermophysical and thermal engineering approaches to modeling prebiotic systems enables the simulation of many key cellular functions by varying the precursor medium composition and the conditions in thermal experimental setups. Protobiocatalysis and protometabolism, surface (or membrane) potential oscillations, excitability, and physical heredity (thermal fission) are observed in such structures. After addition of the genetic components, the machinery for transcription and translation of the expressed genetic code can also operate within them. The possibility of implementing such models as “hypercycle in protocells” and other proto-metabolic and protogenetic networks capable of oscillation is indicated in prebiotic system models obtained in thermally cycling experimental setups. Kompanichenko’s thermodynamic theory, which also applies to hydrothermal and volcanic conditions that can be simulated in planetary environment simulators, is considered a theoretical justification for the possibility of assembling prebiological systems under such oscillatory conditions. Thus, it becomes possible to move from formal thermodynamics for describing the origin of life to engineering thermodynamics and thermal physics, which allows for the development of experimental setups and simulation chambers for validating various models of prebiological synthesis and the formation of protobiological structures, based on thermodynamic and thermochemical criteria.
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References
1.Boiteau L, Pascal R. Energy sources, self-organization, and the origin of life. Origins of Life and Evolution of Biospheres. 2011; 41(1): 23–33. doi: 10.1007/s11084-010-9210-6
2.Dibrova DV, Chudetsky MY, Galperin MY, et al. The role of energy in the emergence of biology from chemistry. Origins of Life and Evolution of Biospheres. 2012; 42(5): 459–468. doi: 10.1007/s11084-012-9301-7
3.Martin WF, Sousa FL, Lane N. Energy at life's origin. Science. 2014; 344(6188): 1092–1093. doi: 10.1126/science.1251653
4.Barge LM, Kee TP, Doloboff IJ, et al. The fuel cell model of abiogenesis: a new approach to origin-of-life simulations. Astrobiology. 2014; 14(3): 254–270. doi: 10.1089/ast.2013.1106
5.Adam ZR, Zubarev D, Aono M, Cleaves HJ. Subsumed complexity: abiogenesis as a by-product of complex energy transduction. Philosophical Transactions of the Royal Society of London Series A. 2017; 375(2109): 20160348. doi: 10.1098/rsta.2016.0348
6.Oró J, Miller SL, Urey HC. Energy conversion in the context of the origin of life. In: Living Systems as Energy Converters: Proceedings of the European Conference on Living Systems as Energy Converters Organized Under the Auspices of the Parliamentary Assembly of the Council of Europe in Collaboration with the Commission of European Communities. Pont-à-Mousson, France; 1977: 7–19.
7.Sugita M. Thermodynamic Consideration for the Oparin's Theory of Origin of Life. Bull. Kobayasi Institute. 1955; 5(3): 171–183.
8.Dayhoff MO, Eck RV, Lippincott ER. Investigation of thermodynamic mechanisms for the production of complex compounds essential for the origin of life. Final report to the Office of Life Science Programs National Aeronautics and Space Administration. 1 Oct. 1965–30 Sep. 1966 (NASA Contract No. 21-003-002). NASA Contractor Report, 19510.
9.Vitas M, Dobovišek A. Towards a general definition of life. Origins of Life and Evolution of Biospheres. 2019; 49(1): 77–88. doi: 10.1007/s11084-019-09578-1
10.Sillerud LO. Energy-Directed, Probabilistic, Self-Assembly. In: Abiogenesis: The Physical Basis for Living Systems. Cham: Springer Nature Switzerland; 2024: 1–61. doi: 10.1007/978-3-031-69086-0_1
11.Sillerud LO. Can Energy Direct Probability? Energy, Entropy, and the Boltzmann Distribution. In: Abiogenesis: The Physical Basis for Living Systems. Cham: Springer Nature Switzerland; 2024: 63–128. doi: 10.1007/978-3-031-69086-0_2
12.Fox SW. Thermodynamic perspectives and the origin of life. Studies in the Natural Sciences. 1974; 4: 119–142.
13.Fox SW, Harada K. Thermal copolymerization of amino acids to a product resembling protein. Science. 1958; 128(3333): 1214. doi: 10.1126/science.128.3333.1214
14.Fox SW, Harada K, Kendrick J. Production of spherules from synthetic proteinoid and hot water. Science. 1959; 129(3357): 1221–1223. doi: 10.1126/science.129.3357.1221
15.Fox SW, Harada K. The thermal copolymerization of amino acids common to protein1. Journal of the American Chemical Society. 1960; 82(14): 3745–3751. doi: 10.1021/ja01499a064
16.Fox SW, Yuyama S. Effects of the Gram stain on microspheres from thermal polyamino acids. Journal of Bacteriology. 1963; 85(2): 279–283. doi: 10.1128/jb.85.2.279-283.1963
17.Fox SW, Yuyama S. Dynamic phenomena in microspheres from thermal proteinoid. Comparative Biochemistry and Physiology. 1964; 11(3): 317–321. doi: 10.1016/0010-406X(64)90065-4
18.Fox SW, Waehneldt TV. The therml synthesis of neutral and basic proteinoids. Biochimica et Biophysica Acta (BBA)-Protein Structure. 1968; 160(2): 246–249. doi: 10.1016/0005-2795(68)90088-7
19.Waehneldt TV, Fox SW. The binding of basic proteinoids with organismic or thermally synthesized polynucleotides. Biochimica et Biophysica Acta (BBA)-Protein Structure. 1968; 160(2): 239–245. doi: 10.1016/0005-2795(68)90087-5
20.Brown M. Irreversible Thermodynamics and the Origin of Life: Proceedings of the 3rd international biophysics congress, MIT. Physics Bulletin. 1975; 26(7): 323. doi: 10.1088/0031-9112/26/7/030
21.von Bertalanffy L. Ètude thermodynamique des phénomènes irréversibles. Nature. 1949; 163(4141): 384.
22.Prigogine I, Nicolis G, Babloyantz A. Thermodynamics of evolution. Physics Today. 1972; 25(11): 23–28. doi: 10.1063/1.3071090
23.Mizunoya T. A new criterion of the evolution of metabolic pathways based on the thermodynamic theory of irreversible processes. Journal of Biochemistry. 1959; 46(2): 213–218. doi: 10.1093/oxfordjournals.jbchem.a127161
24.Bernhard R. Survey of some biological aspects of irreversible thermodynamics. Journal of Theoretical Biology. 1964; 7(3): 532–557. doi: 10.1016/0022-5193(64)90065-3
25.Butler JAV. Life and the second law of thermodynamics. Nature. 1946; 158(4005): 153–154. doi: 10.1038/158153a0
26.Holmes SJ. The principle of stability as a cause of evolution a review of some theories. The Quarterly Review of Biology. 1948; 23(4): 324–332. doi: 10.1086/396614
27.Brillouin L. Life, thermodynamics, and cybernetics. American Scientist. 1949; 37(4): 554–568.
28.Williams EL. Resistance of living organisms to the second law of thermodynamics: irreversible processes, open systems, creation, and evolution. Creation Research Society Quarterly. 1971; 8(2): 117–126.
29.Salthe SN. Energy and semiotics: the second law and the origin of life. Cosmos and History: The Journal of Natural and Social Philosophy. 2005; 1(1): 128–146.
30.Fox RF. A Non-equilibrium thermodynamical analysis of the origin of life. In: Molecular Evolution: Prebiological and Biological. Boston, MA: Springer US; 1972: 79–99. doi: 10.1007/978-1-4684-2013-7_6
31.Michaelian K. Thermodynamic dissipation theory for the origin of life. Earth System Dynamics. 2011; 2(1): 37–51. doi: 10.5194/esd-2-37-2011
32.Michaelian K. Non-equilibrium thermodynamic foundations of the origin of life. Foundations. 2022; 2(1): 308–337. doi: 10.3390/foundations2010020
33.Levy RL, Grayson MA, Wolf CJ. The organic analysis of the Murchison meteorite. Geochimica et Cosmochimica Acta. 1973; 37(3): 467–483. doi: 10.1016/0016-7037(73)90215-5
34.Folsome CE, Allen RD, Ichinose N K. Organic microstructures as products of Miller-Urey electrical discharges. Precambrian Research. 1975; 2(3): 263–275. doi: 10.1016/0301-9268(75)90013-6
35.Ignatov I, Mosin OV. Coronal gas discharge effect in modeling of non-equilibrium conditions with gas electric discharge simulating primary atmosphere and hydrosphere for origin of life and living matter. Journal of Medicine, Physiology and Biophysics. 2014; 5: 47–70.
36.Micca Longo G, Vialetto L, Diomede P, et al. Plasma modeling and prebiotic chemistry: A review of the state-of-the-art and perspectives. Molecules. 2021; 26(12): 3663. doi: 10.3390/molecules26123663
37.Mast CB. Heat‐flow‐driven nonequilibria for prebiotic chemistry. ChemSystemsChem. 2024; 6(5): e202400039. doi: 10.1002/syst.202400039
38.Ianeselli A, Tetiker D, Stein J, et al. Non-equilibrium conditions inside rock pores drive fission, maintenance and selection of coacervate protocells. Nature Chemistry. 2022; 14(1): 32–39. doi: 10.1038/s41557-021-00830-y
39.Tverdislov VA, Khundzhua GG, Yakovenko LV, Anikiev VV. Thermodynamically nonequilibrium nature of the ocean/atmosphere interface and the origin of life. In: Oceanic and Anthropogenic Controls of Life in the Pacific Ocean: Proceedings of the 2nd Pacific Symposium on Marine Sciences (Nadhodka, Russia, August 11–19, 1988). Dordrecht: Springer Netherlands – Kluwer Academic Publishers; 1992: 139–144. doi: 10.1007/978-94-011-2769-3_12
40.Schneider ED, Kay JJ. Life as a manifestation of the second law of thermodynamics. Mathematical and Computer Modeling. 1994; 19(6–8): 25–48. doi: 10.1016/0895-7177(94)90188-0
41.Mann S. Systems of creation: the emergence of life from nonliving matter. Accounts of Chemical Research. 2012; 45(12): 2131–2141. doi: 10.1021/ar200281t
42.Chen IA, Szostak JW. A kinetic study of the growth of fatty acid vesicles. Biophysical Journal. 2004; 87(2): 988–998. doi: 10.1529/biophysj.104.039875
43.Chen IA, Szostak JW. Membrane growth can generate a transmembrane pH gradient in fatty acid vesicles. Proceedings of the National Academy of Sciences. 2004; 101(21): 7965–7970. doi: 10.1073/pnas.0308045101
44.Chen IA, Roberts RW, Szostak JW. The emergence of competition between model protocells. Science. 2004; 305(5689): 1474–1476. doi: 10.1126/science.1100757
45.Chen IA, de Vries MS. From underwear to non-equilibrium thermodynamics: physical chemistry informs the origin of life. Physical Chemistry Chemical Physics. 2016; 18(30): 20005–20006. doi: 10.1039/c6cp90132h
46.Duval S, Zuchan K, Baymann F, et al. Minerals and the emergence of life. Metals in Life Sciences. 2021; 21: 135–157. doi: 10.1515/9783110728280-004
47.Nitschke W, Farr O, Gaudu N, et al. The winding road from origin to emergence (of life). Life. 2024; 14(5): 607. doi: 10.3390/life14050607
48.Russell MJ. A self-sustaining serpentinization mega-engine feeds the fougerite nanoengines implicated in the emergence of guided metabolism. Front. Microbiol. 2023; 14: 1083. doi: 10.3389/fmicb.2023.1145919
49.Trolard F, Duval S, Nitschke W, et al. Mineralogy, geochemistry and occurrences of fougerite in a modern hydrothermal system and its implications for the origin of life. Earth-Science Reviews. 2022; 225: 103910. doi: 10.1016/j.earscirev.2021.103910
50.Matveev VV. Protoreaction of protoplasm. Cellular and Molecular Biology. 2005; 51(8): 715–723.
51.Matveev VV. Comparison of fundamental physical properties of the model cells (protocells) and the living cells reveals the need in protophysiology. International Journal of Astrobiology. 2017; 16(1): 97–104. doi: 10.1017/S1473550416000060
52.Pavlovskaya TE, Telegina TA. Conversion of light energy into chemical one in abiogenesis as a precondition of the origin of life. Origins of Life and Evolution of the Biosphere. 1989; 19(3): 227–228. doi: 10.1007/BF02388836
53.Baltscheffsky H, Schultz A, Baltscheffsky M. Energy for the origin of life. In: Exobiology: Matter, Energy, and Information in the Origin and Evolution of Life in the Universe: Proceedings of the Fifth Trieste Conference on Chemical Evolution (22–26 September 1997; An Abdus Salam Memorial Trieste, Italy). Dordrecht: Springer Netherlands; 1998: 95–102. doi: 10.1007/978-94-011-5137-7_10
54.Harrison SA, Rammu H, Liu F, et al. Life as a guide to its own origins. Annual Review of Ecology, Evolution, and Systematics. 2023; 54(1): 327–350. doi: 10.1146/annurev-ecolsys-102221-045144
55.Russell MJ. Life is a verb, not a noun. Geology. 2017; 45(12): 1143–1144. doi: 10.1130/focus122017.1
56.Nader S, Sebastianelli L, Mansy SS. Protometabolism as out-of-equilibrium chemistry. Philosophical Transactions. Series A, Mathematical, Physical, and Engineering Sciences. 2022; 380(2227): 20200423. doi: 10.1098/rsta.2020.0423
57.Oparin AI. The origin of life on the Earth. 1957. https://www.cabidigitallibrary.org/doi/full/10.5555/19581603563
58.Nogal N, Sanz-Sánchez M, Vela-Gallego S, et al. The protometabolic nature of prebiotic chemistry. Chemical Society Reviews. 2023; 52(21): 7359–7388. doi: 10.1039/d3cs00562f
59.Emond M, Le Saux T, Allemand JF, et al. Energy propagation through a protometabolism leading to the local emergence of singular stationary concentration profiles. Chemistry–A European Journal. 2012; 18(45): 14375–14383. doi: 10.1002/chem.201200879
60.Bai S, Wang H, Gu G, et al. Transient and directional growth of supramolecular hydrogels through reaction–diffusion-mediated self-assembly for dynamic wet gluing. Chemical Engineering Journal. 2023; 475: 146125. doi: 10.1016/j.cej.2023.146125
61.Wang H, Wang K, Bai S, et al. Spatiotemporal control over self-assembly of supramolecular hydrogels through reaction–diffusion. Journal of Colloid and Interface Science. 2024; 664: 938–945. doi: 10.1016/j.jcis.2024.02.104
62.Grundl D, Zhang X, Messaoud S, et al. Reaction–diffusion modelling for microphysiometry on cellular specimens. Medical & Biological Engineering & Computing. 2013; 51(4): 387–395. doi: 10.1007/s11517-012-1015-4
63.Blanc J-J. The general theory of meta-dynamics systemicity. Proceedings of the 53rd Annual Meeting of the ISSS. 2009; Brisbane, Australia. Available online: https://journals.isss.org/index.php/proceedings53rd/article/view/1246 (accessed on 10 June 2024).
64.Blanc J-J. The general theory of metadynamics systemicity. Proceedings of the 55th Annual Meeting of the ISSS. 2011; Hull, UK. Available online: https://journals.isss.org/index.php/proceedings55th/article/view/1605 (accessed on 10 June 2024).
65.Dos Santos WD. Carrying pieces of information in organocatalytic bytes: Semiopoiesis—A new theory of life and its origins. Biosystems. 2018; 164: 167-176. doi: 10.1016/j.biosystems.2017.11.001
66.Łukaszyk S. Life as the explanation of the measurement problem. Journal of Physics: Conference Series. 2024; 2701(1): 012124. doi: 10.1088/1742-6596/2701/1/012124
67.Igamberdiev AU. Biological thermodynamics: Ervin Bauer and the unification of life sciences and physics. Biosystems. 2024; 235: 105089. doi: 10.1016/j.biosystems.2023.105089
68.Deamer D, Cary F, Damer B. Urability: A property of planetary bodies that can support an origin of life. Astrobiology. 2022; 22(7): 889–900. doi: 10.1089/ast.2021.0149
69.Ross DS, Deamer D. Dry/wet cycling and the thermodynamics and kinetics of prebiotic polymer synthesis. Life. 2016; 6(3): 28. doi: 10.3390/life6030028
70.Mukhin LEV. Evolution of organic compounds in volcanic regions. Nature. 1974; 251(5470): 50–51. doi: 10.1038/251050a0
71.Mukhin LM. Volcanic processes and synthesis of simple organic compounds on primitive earth. Origins of Life. 1976; 7(4): 355–368. doi: 10.1007/BF00927945
72.Markhinin EK, Podkletnov NE. The phenomenon of formation of prebiological compounds in volcanic processes. Origins of Life. 1977; 8(3): 225–235. doi: 10.1007/BF00930693
73.Podkletnov NE, Markhinin EK. New data on abiogenic synthesis of prebiological compounds in volcanic processes. Origins of Life. 1981; 11(4): 303–315. doi: 10.1007/BF00931477
74.Lavrentiev GA, Strigunkova TF, Egorov IA. Abiological synthesis of amino acids, purines and pyrimidines under conditions simulating the volcanic ash-gas cloud. Origins of Life. 1984; 14(1): 205–212. doi: 10.1007/BF00933660
75.Voronkov MG, Sukhomazova EN, Levanova EP, et al. High-temperature formation of heteroaromatic structures during volcanic eruptions as the basis of the origin of life on the Earth. Doklady Chemistry. 2007; 415(1): 170–171. doi: 10.1134/S0012500807070056
76.Navarro-González R, Basiuk VA. Prospects of organic syntheses by volcanic lightning. Origins of Life and Evolution of the Biosphere. 1996; 26(3): 223–224. doi: 10.1007/BF02459716
77.Bada J. Volcanic Lightning and Prebiotic Chemistry on the Early Earth. EarthArXiv eprints. 2022; X5B342.
78.Bada JL. New insights into prebiotic chemistry from Stanley Miller's spark discharge experiments. Chemical Society Reviews. 2013; 42(5): 2186–2196. doi: 10.1039/c3cs35433d
79.Springsklee C. Experimental volcanic lightning under early Earth conditions: Implications for prebiotic synthesis and the origin of life (Doctoral dissertation, Dissertation zur Erlangung des Doktorgrades an der Fakultät für Geowissenschaften der Ludwig‐Maximilians‐Universität München; 2023).
80.Springsklee C, Scheu B, Seifert C, et al. Experimental volcanic lightning under conditions relevant to the early Earth: Discharges as a possible prebiotic synthesis mechanism. In: EGU General Assembly Conference Abstracts. 2023: EGU-1742.
81.Mather TA, Harrison RG. Electrification of volcanic plumes. Surveys in Geophysics. 2006; 27(4): 387–432. doi: 10.1007/s10712-006-9005-6
82.Cimarelli C, Genareau K. A review of volcanic electrification of the atmosphere and volcanic lightning. Journal of Volcanology and Geothermal Research. 2022; 422: 107449. doi: 10.1016/j.jvolgeores.2021.107449
83.Yuen DA, Scruggs MA, Spera FJ, et al. Under the surface: Pressure-induced planetary-scale waves, volcanic lightning, and gaseous clouds caused by the submarine eruption of Hunga Tonga-Hunga Ha'apai volcano. Earthquake Research Advances. 2022; 2(3): 100134. doi: 10.1016/j.eqrea.2022.100134
84.Watson LM, Iezzi AM, Toney L, et al. Volcano infrasound: progress and future directions. Bulletin of Volcanology. 2022; 84(5): 44. doi: 10.1007/s00445-022-01555-3
85.Martines-Bedenko VA, Pilipenko VA, Shiokawa K, Akbashev RR. Electromagnetic ULF/ELF oscillations caused by the eruption of the Tonga volcano. Solar-Terrestrial Physics. 2022; 9(1): 47–55. doi: 10.12737/stp-91202305
86.Behnke SA, Edens H, Senay S, et al. Radio frequency characteristics of volcanic lightning and vent discharges. Journal of Geophysical Research: Atmospheres. 2021; 126(18): e2020JD034495. doi: 10.1029/2020JD034495
87.Haney MM, Van Eaton AR, Lyons JJ, et al. Characteristics of thunder and electromagnetic pulses from volcanic lightning at Bogoslof volcano, Alaska. Bulletin of Volcanology. 2020; 82(2): 15. doi: 10.1007/s00445-019-1347-4
88.von der Linden J, Cimarelli C, Gaudin D, et al. Investigating the relationship between volcanic eruption parameters and radio-frequency emission with a multiphysics simulation. In: Geophysical Research Abstracts. 2019; 21: EGU2019-9947-2.
89.Behnke SA, Edens HE, Thomas RJ, et al. Investigating the origin of continual radio frequency impulses during explosive volcanic eruptions. Journal of Geophysical Research: Atmospheres. 2018; 123(8): 4157–4174. doi: 10.1002/2017JD027791
90.Aizawa K, Yokoo A, Kanda W, et al. Magnetotelluric pulses generated by volcanic lightning at Sakurajima volcano, Japan. Geophysical Research Letters. 2010; 37(17): L17301. doi: 10.1029/2010GL044634
91.Aizawa K, Cimarelli C, Alatorre-Ibargüengoitia MA, et al. Physical properties of volcanic lightning: Constraints from magnetotelluric and video observations at Sakurajima volcano, Japan. Earth and Planetary Science Letters. 2016; 444: 45–55. doi: 10.1016/j.epsl.2016.03.024
92.Popa R, Cimpoiaşu VM, Scorei RI. Rooting prebiotic chirality in spinomeric chemistry. Astrobiology. 2009; 9(8): 697–701. doi: 10.1089/ast.2008.0301
93.Ageeva AA, Khramtsova EA, Magin IM, et al. Role of association in chiral catalysis: From asymmetric synthesis to spin selectivity. Chemistry–A European Journal. 2018; 24(70): 18587–18600. doi: 10.1002/chem.201803195
94.Ozturk SF, Sasselov DD. On the origins of life's homochirality: Inducing enantiomeric excess with spin-polarized electrons. Proceedings of the National Academy of Sciences. 2022; 119(28): e2204765119. doi: 10.1073/pnas.2204765119
95.Usselman RJ, Hill I, Singel DJ, Martino CF. Spin biochemistry modulates reactive oxygen species (ROS) production by radio frequency magnetic fields. PloS One. 2014; 9(3): e93065. doi: 10.1371/journal.pone.0093065
96.Buchachenko A, Lawler RG. New possibilities for magnetic control of chemical and biochemical reactions. Accounts of Chemical Research. 2017; 50(4): 877–884. doi: 10.1021/acs.accounts.6b00608
97.Buntkowsky G, Ivanov K, Vieth HM. From free radicals and spin-chemistry over spin-dynamics and hyperpolarization to biology and materials science. Zeitschrift für Physikalische Chemie. 2017; 231(2): 167–175. doi: 10.1515/zpch-2016-0918
98.Koltover VK. Nuclear spin catalysis in biochemical physics. Russian Chemical Bulletin. 2021; 70(9): 1633–1639. doi: 10.1007/s11172-021-3263-6
99.Hore PJ. Spin chemistry in living systems. National Science Review. 2024; 11(9): nwae126. doi: 10.1093/nsr/nwae126
100.Huber C, Eisenreich W, Wächtershäuser G. Synthesis of α-amino and α-hydroxy acids under volcanic conditions: Implications for the origin of life. Tetrahedron Letters. 2010; 51(7): 1069–1071. doi: 10.1016/j.tetlet.2009.12.050
101.Huber C, Wächtershäuser G. α-Hydroxy and α-amino acids under possible Hadean, volcanic origin-of-life conditions. Science. 2006; 314(5799): 630–632. doi: 10.1126/science.1130895
102.Geisberger T, Sobotta J, Eisenreich W, Huber C. Formation of Thiophene under simulated volcanic hydrothermal conditions on earth—implications for early life on extraterrestrial planets. Life. 2021; 11(2): 149. doi: 10.3390/life11020149
103.Bada JL, Korenaga J. Exposed areas above sea level on Earth> 3.5 Gyr ago: Implications for prebiotic and primitive biotic chemistry. Life. 2018; 8(4): 55. doi: 10.3390/life8040055
104.Navarro-Gonzalez R, Basiuk VA. Prebiotic synthesis by lightning in Martian volcanic plumes. In: Exobiology: Matter, Energy, and Information in the Origin and Evolution of Life in the Universe: Proceedings of the Fifth Trieste Conference on Chemical Evolution. 22–26 September 1997; An Abdus Salam Memorial Trieste, Italy. Dordrecht: Springer Netherlands; 1998: 255–260. doi: 10.1007/978-94-011-5137-7_30
105.Segura A, Navarro-González R. Production of low molecular weight hydrocarbons by volcanic eruptions on early Mars. Origins of Life and Evolution of Biospheres. 2005; 35(5): 477–487. doi: 10.1007/s11084-005-5248-2
106.Harada Y, Andersson L, Fowler CM, et al. MAVEN observations of electron‐induced whistler mode waves in the Martian magnetosphere. Journal of Geophysical Research: Space Physics. 2016; 121(10): 9717–9731. doi: 10.1002/2016JA023025
107.Wang J, Yu J, Chen Z, et al. MAVEN observations of whistler-mode waves within the magnetic dips in the Martian ionopause / ionosphere. Astronomical Journal. 2023; 165(2): 56. doi: 10.3847/1538-3881/aca8a6
108.Teng S, Wu Y, Harada Y, et al. Whistler-mode chorus waves at Mars. Nature Communications. 2023; 14(1): 3142. doi: 10.1038/s41467-023-38816-0
109.Cheng S, Su Z, Wu Z, Wang Y. Inferring whistler‐mode chorus wave source regions in the Martian mini‐magnetospheres. Geophysical Research Letters. 2024; 51(2): e2023GL106695. doi: 10.1029/2023GL106695
110.Li W, Thorne RM, Angelopoulos V, et al. Global distribution of whistler‐mode chorus waves observed on the THEMIS spacecraft. Geophysical Research Letters. 2009; 36(9): L09104. doi: 10.1029/2009GL037595
111.Zonca F, Tao X, Chen L. A theoretical framework of chorus wave excitation. Journal of Geophysical Research: Space Physics. 2022; 127(2): e2021JA029760. doi: 10.1029/2021JA029760
112.Antel C, Collier AB, Lichtenberger J, Rodger CJ. Investigating Dunedin whistlers using volcanic lightning. Geophysical Research Letters. 2014; 41(13): 4420–4426. doi: 10.1002/2014GL060340
113.Randall I. Whistling volcanoes. Physics World. 2015; 28(7): 39–42. doi: 10.1088/2058-7058/28/7/39
114.Norinder H, Knudsen E. The relation between lightning discharges and whistlers. Planetary and Space Science. 1959; 1(3): 173–183. doi: 10.1016/0032-0633(59)90014-5
115.Siingh D, Singh AK, Patel RP, et al. Thunderstorms, lightning, sprites and magnetospheric whistler-mode radio waves. Surveys in Geophysics. 2008; 29(6): 499–551. doi: 10.1007/s10712-008-9053-1
116.Taylor Jr HA, Grebowsky JM, Cloutier PA. Venus nightside ionospheric troughs: Implications for evidence of lightning and volcanism. Journal of Geophysical Research: Space Physics. 1985; 90(A8): 7415–7426. doi: 10.1029/JA090iA08p07415
117.Scarf FL. Comment on "Venus nightside ionospheric troughs: Implications for evidence of lightning and volcanism" by HA Taylor, Jr., JM Grebowsky, and PA Cloutier. Journal of Geophysical Research: Space Physics. 1986; 91(A4): 4594–4598. doi: 10.1029/JA091iA04p04594
118.Scarf FL, Russell CT. Evidence of lightning and volcanic activity on Venus: Pro and Con. Science. 1988; 240(4849): 222–224. doi: 10.1126/science.240.4849.222
119.Taylor HA, Cloutier PA. Response: Evidence of Lightning and Volcanic Activity on Venus: Pro and Con. Science. 1988; 240(4849): 224–226. doi: 10.1126/science.240.4849.224
120.Taylor Jr HA, Cloutier PA. Non-evidence of lightning and associated volcanism at Venus. Space Science Reviews. 1992; 61(3): 387–391. doi: 10.1007/BF00222487
121.Airey MW, Mather TA, Pyle DM, et al. Explosive volcanic activity on Venus: the roles of volatile contribution, degassing, and external environment. Planetary and Space Science. 2015; 113: 33–48. doi: 10.1016/j.pss.2015.01.012
122.Lorenz RD. Lightning detection on Venus: a critical review. Progress in Earth and Planetary Science. 2018; 5(1): 1–25. doi: 10.1186/s40645-018-0203-x
123.Herrick RR, Bjonnes ET, Carter LM, et al. Resurfacing history and volcanic activity of Venus. Space Science Reviews. 2023; 219(4): 29. doi: 10.1007/s11214-023-00971-7
124.Wilson CF, Marcq E, Gillmann C, et al. Possible effects of volcanic eruptions on the modern atmosphere of Venus. Space Science Reviews. 2024; 220(3): 31. doi: 10.1007/s11214-024-01056-9
125.Scarf FL, Taylor WWL, Russell CT, Brace LH. Lightning on Venus: Orbiter detection of whistler signals. Journal of Geophysical Research: Space Physics. 1980; 85(A13): 8158–8166. doi: 10.1029/JA085iA13p08158
126.Sonwalkar VS, Carpenter DL, Strangeway RJ. Testing radio bursts observed on the nightside of Venus for evidence of whistler mode propagation from lightning. Journal of Geophysical Research: Space Physics. 1991; 96(A10): 17763–17778. doi: 10.1029/91JA00931
127.Russell CT, Von Dornum M, Scarf FL. VLF bursts in the night ionosphere of Venus: Effects of the magnetic field. Planetary and Space Science. 1988; 36(11): 1211–1218. doi: 10.1016/0032-0633(88)90016-8
128.Russell CT, Von Dornum M, Scarf FL. Planetographic clustering of low-altitude impulsive electric signals in the night ionosphere of Venus. Nature. 1988; 331(6157): 591–594. doi: 10.1038/331591a0
129.Kotsyurbenko OR. Searching for life on Venus: History of the problem and basic concepts. Solar System Research. 2023; 57(3): 221–235. doi: 10.1134/S0038094623030048
130.Morowitz H, Sagan C. Life in the clouds of Venus. Nature. 1967; 215(5107): 1259–1260. doi: 10.1038/2151259a0
131.Morowitz H, Sagan C. Life in the clouds of Venus. Astrobiology. 2011; 11(9): 932–933. doi: 10.1089/ast.2011.932
132.Limaye SS, Mogul R, Smith DJ, et al. Venus' spectral signatures and the potential for life in the clouds. Astrobiology. 2018; 18(9): 1181–1198. doi: 10.1089/ast.2017.1783
133.Słowik G, Oziembłowski M, Dąbrowski P. Bioelectric properties of microorganisms potentially living in Venus clouds and the matrix of life (ML). 43rd COSPAR Scientific Assembly. (Hybrid, Sydney, Australia, 28 January-4 February 2021). 2021; ID1953 (Abstract: F3.4-0001-21).
134.Sasaki S, Yamagishi A, Yoshimura Y, et al. In situ biochemical characterization of Venus cloud particles using a life-signature detection microscope. Canadian Journal of Microbiology. 2022; 68(6): 413–425. doi: 10.1139/cjm-2021-0334
135.Bains W, Petkowski JJ, Seager S. Venus' atmospheric chemistry and cloud characteristics are compatible with venusian life. Astrobiology. 2024; 24(4): 371–385. doi: 10.1089/ast.2023.0025
136.Heng K, Demory BO. Understanding trends associated with clouds in irradiated exoplanets. The Astrophysical Journal. 2013; 777(2): 100. doi: 10.1088/0004-637X/777/2/100
137.Marley MS, Ackerman AS, Cuzzi JN, Kitzmann D. Clouds and hazes in exoplanet atmospheres. Comparative Climatology of Terrestrial Planets. 2013; 1: 367–391. doi: 10.2458/azu_uapress_9780816530595-ch15
138.Morley CV, Marley MS, Fortney JJ, et al. Water clouds in Y dwarfs and exoplanets. The Astrophysical Journal. 2014; 787(1): 78. doi: 10.1088/0004-637X/787/1/78
139.Stevenson KB. Quantifying and predicting the presence of clouds in exoplanet atmospheres. Astrophysical Journal Letters. 2016; 817(2): L16. doi: 10.3847/2041-8205/817/2/L16
140.Helling C. Exoplanet clouds. Annual Review of Earth and Planetary Sciences. 2019; 47(1): 583–606. doi: 10.1146/annurev-earth-053018-060401
141.Yair Y. New results on planetary lightning. Advances in Space Research. 2012; 50(3): 293–310. doi: 10.1016/j.asr.2012.03.031
142.Rimmer P, Ardaseva A, Hodosan G, Helling C. Lightning and Life on Exoplanets. 41st COSPAR Scientific Assembly. 2016; 41: F3-1.
143.Helling C, Rimmer PB. Lightning and charge processes in brown dwarf and exoplanet atmospheres. Philosophical Transactions of the Royal Society A: Mathematical, Physical and Engineering Sciences. 2019; 377(2154): 20180398. doi: 10.1098/rsta.2018.0398
144.Barth P, Stüeken EE, Helling C, et al. The effect of lightning on the atmospheric chemistry of exoplanets and potential biosignatures. Astronomy & Astrophysics. 2024; 686: A58. doi: 10.1051/0004-6361/202348328
145.Hodosán G, Helling C, Asensio-Torres R, et al. Lightning climatology of exoplanets and brown dwarfs guided by solar system data. Monthly Notices of the Royal Astronomical Society. 2016; 461(4): 3927–3947. doi: 10.1093/mnras/stw1533
146.Ardaseva A, Rimmer PB, Waldmann I, et al. Lightning chemistry on Earth-like exoplanets. Monthly Notices of the Royal Astronomical Society. 2017; 470(1): 187–196. doi: 10.1093/mnras/stx1124
147.Braam M, Palmer PI, Decin L, et al. Lightning-induced chemistry on tidally-locked Earth-like exoplanets. Monthly Notices of the Royal Astronomical Society. 2022; 517(2): 2383–2402. doi: 10.1093/mnras/stac2568
148.McGill GE. Venus tectonics: another Earth or another Mars. Geophysical Research Letters. 1979; 6(9): 739–741. doi: 10.1029/GL006i009p00739
149.Head JW, Yuter SE, Solomon SC. Topography of Venus and Earth: A test for the presence of plate tectonics: New spacecraft data showing a nearly global view of the topography of Venus allow first comparisons to be made between Venus and Earth, the two largest terrestrial planets. American Scientist. 1981; 69(6): 614–623.
150.Kerr RA. Tectonics on Venus: like that of ancient Earth? Science. 1982; 215(4530): 278–279. doi: 10.1126/science.215.4530.278
151.Stoddard PR, Jurdy DM. Topographic comparisons of uplift features on Venus and Earth: Implications for Venus tectonics. Icarus. 2012; 217(2): 524–533. doi: 10.1016/j.icarus.2011.07.008
152.Hansen VL. Global tectonic evolution of Venus, from exogenic to endogenic over time, and implications for early Earth processes. Philosophical Transactions of the Royal Society A: Mathematical, Physical and Engineering Sciences. 2018; 376(2132): 20170412. doi: 10.1098/rsta.2017.0412
153.Karato SI, Barbot S. Dynamics of fault motion and the origin of contrasting tectonic style between Earth and Venus. Scientific Reports. 2018; 8(1): 11884. doi: 10.1038/s41598-018-30174-6
154.Yadav VK. Plasma waves around Venus and Mars. IETE Technical Review. 2021; 38(6): 622–661. doi: 10.1080/02564602.2020.1853610
155.Strangeway RJ. Plasma wave evidence for lightning on Venus. Journal of Atmospheric and Terrestrial Physics. 1995; 57(5): 537–556. doi: 10.1016/0021-9169(94)00080-4
156.Segura A, Navarro-González R. Experimental simulation of early Martian volcanic lightning. Advances in Space Research. 2001; 27(2): 201–206. doi: 10.1016/S0273-1177(01)00087-8
157.Cimarelli C, Alatorre-Ibargüengoitia MA, Kueppers U, et al. Experimental generation of volcanic lightning. Geology. 2014; 42(1): 79–82. doi: 10.1130/G34802.1
158.Airey M, Warriner-Bacon E, Aplin K. Laboratory simulations of volcanic ash charging and conditions for volcanic lightning on Venus. In: EGU General Assembly Conference Abstracts. 2017: 15111.
159.McNutt SR, Williams ER. Volcanic lightning: global observations and constraints on source mechanisms. Bulletin of Volcanology. 2010; 72(10): 1153–1167. doi: 10.1007/s00445-010-0393-4
160.Guttenberg N, Virgo N, Chandru K, et al. Bulk measurements of messy chemistries are needed for a theory of the origins of life. Philosophical Transactions. Series A, Mathematical, Physical, and Engineering Sciences. 2017; 375(2109): 20160347. doi: 10.1098/rsta.2016.0347
161.Walker SI, Packard N, Cody GD. Re-conceptualizing the origins of life. Philosophical Transactions. Series A, Mathematical, Physical, and Engineering Sciences. 2017; 375(2109): 20160337. doi: 10.1098/rsta.2016.0337
162.Mamajanov I. Wet-dry cycling delays the gelation of hyperbranched polyesters: Implications to the origin of life. Life. 2019; 9(3): 56. doi: 10.3390/life9030056
163.Jia TZ, Caudan M, Mamajanov I. Origin of species before origin of life: the role of speciation in chemical evolution. Life. 2021; 11(2): 154. doi: 10.3390/life11020154
164.Pérez-Fernández C, González-Toril E, Mateo-Martí E, Ruiz-Bermejo M. Multivariate analysis applied to microwave-driven cyanide polymerization: a statistical view of a complex system. Polymers. 2023; 15(2): 410. doi: 10.3390/polym15020410
165.Chandru K, Potiszil C, Jia TZ. Alternative pathways in astrobiology: Reviewing and synthesizing contingency and non-biomolecular origins of terrestrial and extraterrestrial life. Life. 2024; 14(9): 1069. doi: 10.3390/life14091069
166.Ljones T. Nitrogen fixation and bioenergetics: the role of ATP in nitrogenase catalysis. FEBS Letters. 1979; 98(1): 1–8. doi: 10.1016/0014-5793(79)80139-X
167.Haaker H, Klugkist J. The bioenergetics of electron transport to nitrogenase. FEMS Microbiology Letters. 1987; 46(1): 57–71. doi: 10.1111/j.1574-6968.1987.tb02453.x
168.Broda E, Peschek GA. Evolutionary considerations on the thermodynamics of nitrogen fixation. BioSystems. 1980; 13(1–2): 47–56. doi: 10.1016/0303-2647(80)90004-2
169.Scherer S, Almon H, Böger P. Interaction of photosynthesis, respiration and nitrogen fixation in cyanobacteria. Photosynthesis Research. 1988; 15(2): 95–114. doi: 10.1007/BF00035255
170.Sheehy JE, Holloway T, Woodward FI, Gosse G. Nitrogen fixation, nodule numbers per unit ground area and bioenergetics. Annals of Botany. 1988; 62(5): 531–536. doi: 10.1093/oxfordjournals.aob.a087689
171.Ludden PW. Energetics and sources of energy for biological nitrogen fixation. Current Topics in Bioenergetics. 1991; 16: 369–390. doi: 10.1016/B978-0-12-152516-3.50017-7
172.Kastori RR, Petrović NM. Bioenergetic aspects of competition between nitrogen metabolism and carbohydrate synthesis in small grains. Zbornik Matice Srpske za Prirodne Nauke. 2004; 106: 21–27. doi: 10.2298/ZMSPN0406021K
173.Kern M, Simon J. Electron transport chains and bioenergetics of respiratory nitrogen metabolism in Wolinella succinogenes and other Epsilonproteobacteria. Biochimica et Biophysica Acta (BBA)-Bioenergetics. 2009; 1787(6): 646–656. doi: 10.1016/j.bbabio.2008.12.010
174.Boyd ES, Peters JW. New insights into the evolutionary history of biological nitrogen fixation. Frontiers in Microbiology. 2013; 4: 201. doi: 10.3389/fmicb.2013.00201
175.Alleman AB, Peters JW. Mechanisms for generating low potential electrons across the metabolic diversity of nitrogen-fixing bacteria. Applied and Environmental Microbiology. 2023; 89(5): e00378-23. doi: 10.1128/aem.00378-23
176.Navarro‐González R, Molina MJ, Molina LT. Nitrogen fixation by volcanic lightning in the early Earth. Geophysical Research Letters. 1998; 25(16): 3123–3126. doi: 10.1029/98GL02254
177.Navarro-González R, Segura A. Volcanic lightning and the availability of reactive nitrogen and phosphorus for chemical evolution. In: First Steps in the Origin of Life in the Universe: Proceedings of the Sixth Trieste Conference on Chemical Evolution (18–22 September 2000). Trieste, Italy; 2021: 201–210. Dordrecht: Springer Netherlands. doi: 10.1007/978-94-010-1017-9_19
178.Pasek M, Block K. Lightning-induced reduction of phosphorus oxidation state. Nature Geoscience. 2009; 2(8): 553–556. doi: 10.1038/ngeo580
179.Bindi L, Feng T, Pasek MA. Routes to reduction of phosphate by high-energy events. Communications Earth & Environment. 2023; 4(1): 70. doi: 10.1038/s43247-023-00736-2
180.Jiang HJ, Underwood TC, Bell JG, et al. Mimicking lightning-induced electrochemistry on the early Earth. Proceedings of the National Academy of Sciences. 2024; 121(32): e2400819121. doi: 10.1073/pnas.2400819121
181.Serezhkin YG. Lightning in the atmosphere of a comet and the origins of prebiological systems. Proc. SPIE. 1999; 3755: 242–250.
182.Serozhkin Y. Lightning-induced astrobiological potential of rare gas-grain medium. Geophysical Research Abstracts. 2005; 7: 01464.
183.Serozhkin Y. Possibilities of lightning-induced processes in gas-dusty atmosphere of water-containing bodies of Solar System. Proceedings of the International Astronomical Union. 2008; 4(S251): 331–332. doi: 10.1017/S174392130802206X
184.Mateo-Marti E, Prieto-Ballesteros O, Munoz Caro G, et al. Characterizing interstellar medium, planetary surface and deep environments by spectroscopic techniques using unique simulation chambers at Centro de Astrobiologia (CAB). Life. 2019; 9(3): 72. doi: 10.3390/life9030072
185.Mateo-Marti E. Planetary atmosphere and surfaces chamber (PASC): A platform to address various challenges in astrobiology. Challenges. 2014; 5(2): 213–223. doi: 10.3390/challe5020213
186.Mateo-Martí E, Prieto-Ballesteros O, Sobrado JM, et al. A chamber for studying planetary environments and its applications to astrobiology. Measurement Science and Technology. 2006; 17(8): 2274–2280. doi: 10.1088/0957-0233/17/8/033
187.Sanchez-Arenillas M, Mateo-Marti E. Spectroscopic study of cystine adsorption on pyrite surface: From vacuum to solution conditions. Chemical Physics. 2015; 458: 92–98. doi: 10.1016/j.chemphys.2015.06.018
188.Sanchez-Arenillas M, Mateo-Marti E. Pyrite surface environment drives molecular adsorption: Cystine on pyrite (100) investigated by X-ray photoemission spectroscopy and low energy electron diffraction. Physical Chemistry Chemical Physics. 2016; 18(39): 27219–27225. doi: 10.1039/C6CP03610A
189.Sanchez-Arenillas M, Galvez-Martinez S, Mateo-Marti E. Sulfur amino acids and alanine on pyrite (100) by X-ray photoemission spectroscopy: Surface or molecular role? Applied Surface Science. 2017; 414: 303–312. doi: 10.1016/j.apsusc.2017.04.075
190.Mateo-Marti E, Pradier CM. UV irradiation study of a tripeptide isolated in an argon matrix: A tautomerism process evidenced by infrared and X-ray photoemission spectroscopies. Spectrochimica Acta Part A: Molecular and Biomolecular Spectroscopy. 2013; 109: 247–252. doi: 10.1016/j.saa.2013.03.002
191.Galvez-Martinez S, Mateo-Marti E. Ultraviolet irradiation on a pyrite surface improves triglycine adsorption. Life. 2018; 8(4): 50. doi: 10.3390/life8040050
192.Mateo-Martí E, Pradier CM, Martín-Gago JA. Ultraviolet photostability of adenine on gold and silicon surfaces. Astrobiology. 2009; 9(6): 573–579. doi: 10.1089/ast.2008.0268
193.Gil-Lozano C, Mateo-Martí E, Gago-Duport L, et al. Exploring the mineral sequences that can be formed from a disulfide-rich soil on early mars. In: Proceedings of the 48th Lunar and Planetary Science Conference. 20–24 March 2017; The Woodlands, TX, USA: 2021.
194.Gradov O, Gradova M. Photoinduced Self-Organization in "Semiconductor World": Part I. from Protophotosynthesis to Protomembranes Preprints, 202310.0887. Topic: BPMF (Biophysics of Photosynthesis: From Molecules to the Field), 2023: 1–95.
195.Allen E. A monitoring device for ultraviolet energy in the atlas xenon weatherometer. Applied Optics. 1965; 4(7): 835–838. doi: 10.1364/AO.4.000835
196.Suits LD, Hsuan YG. Assessing the photo-degradation of geosynthetics by outdoor exposure and laboratory weatherometer. Geotextiles and Geomembranes. 2003; 21(2): 111–122. doi: 10.1016/S0266-1144(02)00064-5
197.Chou BR, Dain SJ, Cheng BB. Effect of ultraviolet exposure on impact resistance of ophthalmic lenses. Optometry and Vision Science. 2015; 92(12): 1154–1160. doi: 10.1097/OPX.0000000000000734
198.Mateo-Marti E, Galvez-Martinez S, Gil-Lozano C, Zorzano MP. Pyrite-induced UV-photocatalytic abiotic nitrogen fixation: implications for early atmospheres and Life. Scientific Reports. 2019; 9(1): 15311. doi: 10.1038/s41598-019-51784-8
199.Fernández-Sampedro M, Muñoz-Iglesias V, Mateo-Marti E, Prieto-Ballesteros O. Stability of hydrate sulphate magnesium under the surface conditions of Europa. Science. 2019; 17: 2274–2280.
200.Mateo-Martí EM. Planetary simulation chambers bring Mars to laboratory studies. Física de la Tierra. 2016; 28: 13–23. doi: 10.5209/rev_FITE.2016.v28.54043
201.Bonales LJ, Mateo-Martí E. Study of the stability of Gly•MgSO4•5H2O under simulated Martian conditions by in situ Raman spectroscopy. Astrobiology. 2022; 22(1): 75–86. doi: 10.1089/ast.2021.0089
202.Cruz-Diaz GA, Muñoz Caro GM, Chen YJ, Yih TS. Vacuum-UV spectroscopy of interstellar ice analogs. I. Absorption cross-sections of polar-ice molecules. Astronomy & Astrophysics. 2014; 562(1): A119. doi: 10.1051/0004-6361/201322292
203.Cruz-Diaz GA, Muñoz Caro GM, Chen YJ, Yih TS. Vacuum-UV spectroscopy of interstellar ice analogs. II. Absorption cross-sections of nonpolar ice molecules. Astronomy & Astrophysics. 2014; 562(1): A120. doi: 10.1051/0004-6361/201322293
204.Cruz-Diaz GA, Caro GM, Chen YJ. Vacuum-UV absorption spectroscopy of interstellar ice analogues. III. Isotopic effects. Monthly Notices of the Royal Astronomical Society. 2014; 439(3): 2370–2376. doi: 10.1093/mnras/stu095
205.Chen YJ, Juang KJ, Nuevo M, et al. Formation of S-bearing species by V-UV/E-UV irradiation of H2S-containing ice mixtures: Photon energy and carbon source effects. Astrophysical Journal. 2015; 798(2): 80. doi: 10.1088/0004-637X/798/2/80
206.González Díaz C, Carrascosa de Lucas H, Aparicio S, et al. Accretion and photodesorption of CO ice as a function of the incident angle of deposition. Monthly Notices of the Royal Astronomical Society. 2019; 486(4): 5519–5525. doi: 10.1093/mnras/stz1198
207.Caro GM, Jiménez-Escobar A, Martín-Gago JÁ, et al. New results on thermal and photodesorption of CO ice using the novel InterStellar Astrochemistry Chamber (ISAC). Astronomy & Astrophysics. 2010; 522: A108. doi: 10.1051/0004-6361/200913948
208.Dartois E, Muñoz Caro GM, Deboffle D, d'Hendecourt L. Diffuse interstellar medium organic polymers: Photoproduction of the 3.4, 6.85 and 7.25 m features. Astronomy & Astrophysics. 2004; 423(3): L33–L36. doi: 10.1051/0004-6361:200400031
209.Dartois E, Muñoz Caro GM, Deboffle D, et al. Ultraviolet photoproduction of ISM dust: Laboratory characterisation and astrophysical relevance. Astronomy & Astrophysics. 2005; 432(3): 895–908. doi: 10.1051/0004-6361:20042033
210.Matrajt G, Muñoz Caro GM, Dartois E, et al. FTIR analysis of the organics in IDPs: Comparison with the IR spectra of the diffuse interstellar medium. Astronomy & Astrophysics. 2005; 433(3): 979–995. doi: 10.1051/0004-6361:20042054
211.Muñoz Caro GM, Matrajt G, Dartois E, et al. Nature and evolution of the dominant carbonaceous matter in interplanetary dust particles: effects of irradiation and identification with a type of amorphous carbon. Astronomy & Astrophysics. 2006; 459(1): 147–159. doi: 10.1051/0004-6361:20065434
212.Dartois E, Muñoz-Caro GM. Carbonaceous dust grains in luminous infrared galaxies-Spitzer/IRS reveals a-C:H as an abundant and ubiquitous ISM component. Astronomy & Astrophysics. 2007; 476(3): 1235–1242. doi: 10.1051/0004-6361:20077881
213.Munoz Caro GM, Dartois E, Nakamura-Messenger K. Characterization of the carbon component in cometary Stardust samples by means of infrared and Raman spectroscopy. Astronomy & Astrophysics. 2008; 485(3): 743–751. doi: 10.1051/0004-6361:20079322
214.Godard M, Geballe TR, Dartois E, Muñoz Caro GM. The deep 3.4 μ m interstellar absorption feature toward the IRAS 18511+ 0146 cluster. Astronomy & Astrophysics. 2012; 537: A27. doi: 10.1051/0004-6361/201117806
215.Munoz Caro GM, Rietmeijer FJ, Souza‐Egipsy V, Valles‐González MP. A potentially new type of nonchondritic interplanetary dust particle with hematite, organic carbon, amorphous Na, Ca‐aluminosilicate, and FeO‐spheres. Meteoritics & Planetary Science. 2012; 47(2): 248–261. doi: 10.1111/j.1945-5100.2011.01325.x
216.Alata I, Cruz-Diaz GA, Muñoz Caro GM, Dartois E. Vacuum ultraviolet photolysis of hydrogenated amorphous carbons: I. Interstellar H2 and CH4 formation rates. Astronomy & Astrophysics. 2014; 569: A119. doi: 10.1051/0004-6361/201423934
217.Alata I, Jallat A, Gavilan L, et al. Vacuum ultraviolet of hydrogenated amorphous carbons: II. Small hydrocarbons production in photon dominated regions. Astronomy & Astrophysics. 2015; 584: A123. doi: 10.1051/0004-6361/201526547
218.Martín-Doménech R, Dartois E, Caro GM. Vacuum ultraviolet photolysis of hydrogenated amorphous carbons-III. Diffusion of photo-produced H2 as a function of temperature. Astronomy & Astrophysics. 2016; 591: A107. doi: 10.1051/0004-6361/201628474
219.Dartois E, Jallat A, Alata I, et al. UV photolysis of hydrogenated amorphous carbons of astrophysical interest. Polycyclic Aromatic Compounds. 2017; 37(2–3): 94–100. doi: 10.1080/10406638.2016.1213743
220.Martín-Doménech R, Manzano-Santamaría J, Caro GM, et al. UV photoprocessing of CO2 ice: a complete quantification of photochemistry and photon-induced desorption processes. Astronomy & Astrophysics. 2015; 584: A14. doi: 10.1051/0004-6361/201526254
221.Caro GM, Chen YJ, Aparicio S, et al. Photodesorption and physical properties of CO ice as a function of temperature. Astronomy & Astrophysics. 2016; 589: A19. doi: 10.1051/0004-6361/201527866
222.Chen YJ, Muñoz Caro GM, Aparicio S, et al. Wannier-Mott excitons in nanoscale molecular ices. Physical Review Letters. 2017; 119(15): 157703. doi: 10.1103/PhysRevLett.119.157703
223.Sie NE, Caro GM, Huang ZH, et al. On the photodesorption of CO2 ice analogs: The formation of atomic C in the ice and the effect of the VUV emission spectrum. The Astrophysical Journal. 2019; 874(1): 35. doi: 10.3847/1538-4357/ab07b7
224.Jiménez-Escobar A, Muñoz Caro GM, Ciaravella A, et al. Soft X-ray irradiation of H2S ice and the presence of S2 in comets. The Astrophysical Journal Letters. 2012; 751(2): L40. doi: 10.1088/2041-8205/751/2/L40
225.Jiménez-Escobar A, Ciaravella A, Cecchi-Pestellini C, et al. X-ray photo-desorption of H2O:CO:NH3 circumstellar ice analogs: Gas-phase enrichment. The Astrophysical Journal. 2018; 868(1): 73. doi: 10.3847/1538-4357/aae9e1
226.Ciaravella A, Jiménez-Escobar A, Muñoz Caro GM, et al. Soft X-ray irradiation of pure carbon monoxide interstellar ice analogues. The Astrophysical Journal Letters. 2012; 746(1): L1. doi: 10.1088/2041-8205/746/1/L1
227.Chen YJ, Ciaravella A, Muñoz Caro GM, et al. Soft X-ray irradiation of methanol ice: Formation of products as a function of photon energy. The Astrophysical Journal. 2013; 778(2): 162. doi: 10.1088/0004-637X/778/2/162
228.Ciaravella A, Cecchi-Pestellini C, Chen YJ, et al. Soft X-ray irradiation of silicates: implications for dust evolution in protoplanetary disks. The Astrophysical Journal. 2016; 828(1): 29. doi: 10.3847/0004-637X/828/1/29
229.Ciaravella A, Jiménez-Escobar A, Cecchi-Pestellini C, et al. Synthesis of complex organic molecules in soft X-ray irradiated ices. The Astrophysical Journal. 2019; 879(1): 21. doi: 10.3847/1538-4357/ab2232
230.Ciaravella A, Chen YJ, Cecchi-Pestellini C, et al. Chemical evolution of a CO ice induced by soft X-rays. The Astrophysical Journal. 2016; 819(1): 38. doi: 10.3847/0004-637X/819/1/38
231.Munoz Caro GM, Ciaravella A, Jiménez-Escobar A, et al. X-ray versus ultraviolet irradiation of astrophysical ice analogs leading to formation of complex organic molecules. ACS Earth and Space Chemistry. 2019; 3(10): 2138–2157. doi: 10.1021/acsearthspacechem.9b00135
232.Bonales LJ, Muñoz-Iglesias V, Prieto-Ballesteros O. Raman spectroscopy as a tool to study the solubility of CO2 in magnesium sulphate brines: Application to the fluids of Europa's cryomagmatic reservoirs. European Journal of Mineralogy. 2013; 25(5): 735–743. doi: 10.1127/0935-1221/2013/0025-2327
233.Munoz-Iglesias V, Prieto-Ballesteros O, Bonales LJ. Conspicuous assemblages of hydrated minerals from the H2O–MgSO4–CO2 system on Jupiter's Europa satellite. Geochimica et Cosmochimica Acta. 2014; 125: 466–475. doi: 10.1016/j.gca.2013.10.007
234.Izquierdo-Ruiz F, Otero-de-la-Roza A, Contreras-García J, et al. Guest–host interactions in gas clathrate hydrates under pressure. High Pressure Research. 2015; 35(1): 49–56. doi: 10.1080/08957959.2014.1002485
235.Izquierdo-Ruiz F, Otero-De-La-Roza A, Contreras-García J, et al. Effects of the CO2 guest molecule on the sI clathrate hydrate structure. Materials. 2016; 9(9): 777. doi: 10.3390/ma9090777
236.Ten Kate IL, Reuver M. PALLAS: planetary analogues laboratory for light, atmosphere, and surface simulations. Netherlands Journal of Geosciences. 2016; 95(2): 183–189. doi: 10.1017/njg.2015.25
237.Rybach L. The relationship between seismic velocity and radioactive heat production in crustal rocks: An exponential law. Pure and Applied Geophysics. 1978; 117(1): 75–82. doi: 10.1007/BF00879737
238.Smith DL. Heat flow, radioactive heat generation, and theoretical tectonics for northwestern Mexico. Earth and Planetary Science Letters. 1974; 23(1): 43–52. doi: 10.1016/0012-821X(74)90027-7
239.Forsyth PA. Radioactive waste disposal heating effects in unsaturated fractured rock. Numerical Heat Transfer. 1990; 17(1): 29–51. doi: 10.1080/10407789008944731
240.Čermák V, Bodri L, Rybach L. Radioactive heat production in the continental crust and its depth dependence. In: Terrestrial heat flow and the lithosphere structure. Berlin, Heidelberg: Springer Berlin Heidelberg; 1991: 23–69. doi: 10.1007/978-3-642-75566-0_3
241.Pasquale V, Verdoya M, Chiozzi P. Radioactive heat generation and its thermal effects in the Alps–Apennines boundary zone. Tectonophysics. 2001; 331(3): 269–283. doi: 10.1016/S0040-1951(00)00284-2
242.Pysklywec RN, Beaumont C. Intraplate tectonics: feedback between radioactive thermal weakening and crustal deformation driven by mantle lithosphere instabilities. Earth and Planetary Science Letters. 2004; 221(1–4): 275–292. doi: 10.1016/S0012-821X(04)00098-5
243.Plant JA, Saunders AD. The radioactive earth. Radiation Protection Dosimetry. 1996; 68(1–2): 25–36. doi: 10.1093/oxfordjournals.rpd.a031815
244.Andreoli MA, Hart RJ, Ashwal LD, Coetzee H. Correlations between U, Th content and metamorphic grade in the western Namaqualand Belt, South Africa, with implications for radioactive heating of the crust. Journal of Petrology. 2006; 47(6): 1095–1118. doi: 10.1093/petrology/egl002
245.Abbady AG, Al-Ghamdi AH. Heat production rate from radioactive elements of granite rocks in north and southeastern Arabian shield Kingdom of Saudi Arabia. Journal of Radiation Research and Applied Sciences. 2018; 11(4): 281–290. doi: 10.1016/j.jrras.2018.04.001
246.Ruedas T. Radioactive heat production of six geologically important nuclides. Geochemistry, Geophysics, Geosystems. 2017; 18(9): 3530–3541. doi: 10.1002/2017GC006997
247.Thatcher KE, Bond AE, Norris S. Pore pressure response to disposal of heat generating radioactive waste in a low permeability host rock. International Journal of Rock Mechanics and Mining Sciences. 2020; 135: 104456. doi: 10.1016/j.ijrmms.2020.104456
248.Murrell MT, Burnett DS. Partitioning of K, U, and Th between sulfide and silicate liquids: implications for radioactive heating of planetary cores. Journal of Geophysical Research: Solid Earth. 1986; 91(B8): 8126–8136. doi: 10.1029/JB091iB08p08126
249.Murthy VR, Van Westrenen W, Fei Y. Experimental evidence that potassium is a substantial radioactive heat source in planetary cores. Nature. 2003; 423(6936): 163–165. doi: 10.1038/nature01560
250.O'Neill C, O'Neill HSC, Jellinek AM. On the distribution and variation of radioactive heat producing elements within meteorites, the Earth, and planets. Space Science Reviews. 2020; 216(3): 37. doi: 10.1007/s11214-020-00657-4
251.Laneuville M, Taylor J, Wieczorek MA. Distribution of radioactive heat sources and thermal history of the Moon. Journal of Geophysical Research: Planets. 2018; 123(12): 3144–3166. doi: 10.1029/2018JE005742
252.Yabushita S, Wada K. Radioactive heating and layered structure of cometary nuclei. Earth, Moon, and Planets. 1988; 40(3): 303–313. doi: 10.1007/BF00055014
253.Prialnik D, Podolak M. Changes in the structure of comet nuclei due to radioactive heating. Space Science Reviews. 1999; 90(1): 169–178. doi: 10.1007/978-94-011-4211-5_16
254.Prialnik D, Podolak M. Radioactive heating of porous comet nuclei. Icarus. 1995; 117(2): 420–430. doi: 10.1006/icar.1995.1166
255.Yabushita S. Thermal evolution of cometary nuclei by radioactive heating and possible formation of organic chemicals. Monthly Notices of the Royal Astronomical Society. 1993; 260(4): 819–825. doi: 10.1093/mnras/260.4.819
256.Spohn T. Radioactive Heating. In: Encyclopedia of Astrobiology. Berlin, Heidelberg: Springer Berlin Heidelberg; 2023: 2606–2607. doi: 10.1007/978-3-662-65093-6_1331
257.Cano Z, Izzo L, de Ugarte Postigo A, et al. GRB 161219B/SN 2016jca: A low-redshift gamma-ray burst supernova powered by radioactive heating. Astronomy & Astrophysics. 2017; 605: A107. doi: 10.1051/0004-6361/201730535
258.Boss AP. The formation of planetary systems. Orig. Life Evol. Biosph. 2009; 39: 180–181.
259.Bassez MP. Prebiotic synthesis under hydrothermal conditions. Orig. Life Evol. Biosph. 2009; 39: 223–224.
260.Liu C, Cecil D, Zipser EJ. Relationships between lightning flash rates and passive microwave brightness temperatures at 85 and 37 GHz over the tropics and subtropics. Journal of Geophysical Research: Atmospheres. 2011; 116(D23): D23108. doi: 10.1029/2011JD016353
261.Petersen D, Beasley W. Microwave radio emissions of negative cloud-to-ground lightning flashes. Atmospheric Research. 2014; 135: 314–321. doi: 10.1016/j.atmosres.2012.10.021
262.Jiang S, Pan Y, Lei L, et al. Remote sensing of the lightning heating effect duration with ground-based microwave radiometer. Atmospheric Research. 2018; 205: 26–32. doi: 10.1016/j.atmosres.2018.02.003
263.Sabri MHM, Alkahtani AA, Ahmad MR, et al. Microwave radiation associated with lightning initiation events of negative cloud-to-ground flashes. Atmosphere. 2022; 13(9): 1454. doi: 10.3390/atmos13091454
264.Shoshani Y, Jerby E. Microwave-ignited DC-plasma ejection from basalt: Powder-generation and lightning-like effects. Applied Physics Letters. 2022; 120(26): 264101. doi: 10.1063/5.0095238
265.Jerby E, Shoshani Y. Localized microwave-heating (LMH) of basalt–Lava, dusty-plasma, and ball-lightning ejection by a "miniature volcano". Scientific Reports. 2019; 9(1): 12954. doi: 10.1038/s41598-019-49051-x
266.Wu HC. Relativistic-microwave theory of ball lightning. Scientific Reports. 2016; 6(1): 28263. doi: 10.1038/srep28263
267.Ofuruton H, Kondo N, Kamogawa M, et al. Experimental conditions for ball lightning creation by using air gap discharge embedded in a microwave field. Journal of Geophysical Research: Atmospheres. 2001; 106(D12): 12367–12369. doi: 10.1029/2000JD900780
268.Menéndez JA, Juárez-Pérez EJ, Ruisánchez E, et al. Ball lightning plasma and plasma arc formation during the microwave heating of carbons. Carbon. 2011; 49(1): 346–349. doi: 10.1016/j.carbon.2010.09.032
269.Miyake S, Takeuchi S, Arata Y. Experimental investigation of coaxial microwave plasmatron in nitrogen gas. Japanese Journal of Applied Physics. 1974; 13(2): 296. doi: 10.1143/JJAP.13.296
270.Kirichenko AY, Motornenko AP, Rusanov AF, et al. The electromagnetic field in the plasma jet of a microwave plasmatron. Technical Physics. 2001; 46(4): 386–390. doi: 10.1134/1.1365518
271.Motornenko AP, Schünemann K. Plasmatron with microwave excitation of nonequilibrium plasma. AEU-International Journal of Electronics and Communications. 2001; 55(5): 337–341. doi: 10.1078/1434-8411-00048
272.Kirichenko AY, Motornenko AP, Suvorova OA. Structure of a discharge induced by a coaxial microwave plasmatron with a gas-supply channel in the inner electrode. Plasma Physics Reports. 2003; 29(6): 528–533. doi: 10.1134/1.1583867
273.Babenko VA, Kochmarev LY, Shilov IP. Microwave discharge of a waveguide plasmatron for deposition of high-NA structures based on silica glass. Journal of Communications Technology and Electronics. 2005; 50(1): 93–100.
274.Martyniuk SP, Motornenko AP, Schuenemann K, Skuratovskiy IG. Low power pulse microwave plasmatron. Radio Physics and Radio Astronomy. 2013; 7(2): 180.
275.Zherlitsyn AG, Buyantuev VV, Kositsyn VS, Shiyan VP. A microwave plasmatron. Instruments and Experimental Techniques. 2014; 57(6): 749–750. doi: 10.1134/S0020441214050183
276.Jivotov V. Microwave reactors for plasma chemistry. Le Journal de Physique IV. 1998; 8(7): 7–401.
277.Gritsinin SI, Knyazev VY, Kossyĭ IA, Popov NA. Microwave torch as a plasmachemical generator of nitric oxides. Plasma Physics Reports. 2006; 32(6): 520–524. doi: 10.1134/S1063780X06060083
278.Gritsinin SI, Gushchin PA, Davydov AM, et al. Conversion of methane in a coaxial microwave torch. Plasma Physics Reports. 2009; 35(11): 933–940. doi: 10.1134/S1063780X09110052
279.Nunnally T, Gutsol K, Rabinovich A, et al. Dissociation of CO2 in a low current gliding arc plasmatron. Journal of Physics D: Applied Physics. 2011; 44(27): 274009. doi: 10.1088/0022-3727/44/27/274009
280.Arata Y, Miyake S, Takeuchi S. High power microwave plasma beam as a heat source (Report I): Microwave plasmotron in nitrogen gas. Transactions of JWRI. 1973; 2(1): 27–39.
281.Zhang SL, Buchta R, Sigurd D. Rapid thermal processing with microwave heating. Thin Solid Films. 1994; 246(1–2): 151–157. doi: 10.1016/0040-6090(94)90744-8
282.Tiwari S, Caiola A, Bai X, et al. Microwave plasma-enhanced and microwave heated chemical reactions. Plasma Chemistry and Plasma Processing. 2020; 40(1): 1–23. doi: 10.1007/s11090-019-10040-x
283.Gadonna K. Study of gas heating by a microwave plasma torch. Journal of Modern Physics. 2012; 3(30): 1603–1615. doi: 10.4236/jmp.2012.330198
284.Su L, Kumar R, Ogungbesan B, Sassi M. Experimental investigation of gas heating and dissociation in a microwave plasma torch at atmospheric pressure. Energy Conversion and Management. 2014; 78: 695–703. doi: 10.1016/j.enconman.2013.10.068
285.Saifutdinov AI, Kustova EV. Dynamics of plasma formation and gas heating in a focused-microwave discharge in nitrogen. Journal of Applied Physics. 2021; 129(2): 023301. doi: 10.1063/5.0035320
286.Vialetto L, Van De Steeg AW, Viegas P, et al. Charged particle kinetics and gas heating in CO2 microwave plasma contraction: comparisons of simulations and experiments. Plasma Sources Science and Technology. 2022; 31(5): 055005. doi: 10.1088/1361-6595/ac660b
287.Vorburger TV, Waclawski BJ, Sandstrom DR. Improved microwave‐discharge source for uv photoemission. Review of Scientific Instruments. 1976; 47(4): 501–504. doi: 10.1063/1.1134650
288.Matveyev AA, Silakov VP. Theoretical study of the role of ultraviolet radiation of the non-equilibrium plasma in the dynamics of the microwave discharge in molecular nitrogen. Plasma Sources Science and Technology. 1999; 8(1): 162–178. doi: 10.1088/0963-0252/8/1/021
289.Xia LY, Gu DH, Tan J, et al. Photolysis of low concentration H2S under UV/VUV irradiation emitted from microwave discharge electrodeless lamps. Chemosphere. 2008; 71(9): 1774–1780. doi: 10.1016/j.chemosphere.2007.12.022
290.Oh JS, Kawamura K, Pramanik BK, Hatta A. Investigation of water-vapor plasma excited by microwaves as ultraviolet light source. IEEE Transactions on Plasma Science. 2008; 37(1): 107–112. doi: 10.1109/TPS.2008.2006021
291.Barkhudarov EM, Denisova NV, Kossyi IA, Misakyan MA. Resonance microwave discharge as a source of UV radiation. Plasma Physics Reports. 2009; 35(7): 559–566. doi: 10.1134/S1063780X09070044
292.Ferrari C, Longo I, Socci L, Cavagnaro M. Coaxially driven microwave electrodeless UV lamp. Journal of Electromagnetic Waves and Applications. 2014; 28(6): 669–684. doi: 10.1080/09205071.2014.884401
293.Raĭzer YP. High-frequency high-pressure induction discharge and the electrodeless plasmotron. Soviet Physics Uspekhi. 1970; 12(6): 777–791. doi: 10.1070/PU1970v012n06ABEH003791
294.Füllekrug M, Ignaccolo M, Kuvshinov A. Stratospheric Joule heating by lightning continuing current inferred from radio remote sensing. Radio Science. 2006; 41(02): 1–5. doi: 10.1029/2005RS003328
295.Inan US, Bell TF, Rodriguez JV. Heating and ionization of the lower ionosphere by lightning. Geophysical Research Letters. 1991; 18(4): 705–708. doi: 10.1029/91GL00792
296.Nickolaenko AP, Hayakawa M. Heating of the lower ionosphere electrons by electromagnetic radiation of lightning discharges. Geophysical Research Letters. 1995; 22(22): 3015–3018. doi: 10.1029/95GL02898
297.Sharma DK, Israil M, Rai J, Garg SC. Lightning induced heating of the ionosphere. Atmósfera. 2004; 17(1): 31–38.
298.De SS, Adhikari SK, De M. A study on heating of the lower ionosphere during lightning. Indian Journal of Radio & Space Physics. 2008; 37: 109–113.
299.Blaes PR, Marshall RA, Inan US. Global occurrence rate of elves and ionospheric heating due to cloud‐to‐ground lightning. Journal of Geophysical Research: Space Physics. 2016; 121(1): 699–712. doi: 10.1002/2015JA021879
300.Taranenko YN, Inan US, Bell TF. Optical signatures of lightning‐induced heating of the D region. Geophysical Research Letters. 1992; 19(18): 1815–1818. doi: 10.1029/92GL01965
301.Inan US, Rodriguez JV, Idone VP. VLF signatures of lightning‐induced heating and ionization of the nighttime D‐region. Geophysical Research Letters. 1993; 20(21): 2355–2358. doi: 10.1029/93GL02620
302.Farges T, Blanc E, Tanguy M. Experimental evidence of D region heating by lightning‐induced electromagnetic pulses on MF radio links. Journal of Geophysical Research: Space Physics. 2007; 112(A10): A10302. doi: 10.1029/2007JA012308
303.Chen J, Elmi C, Goldsby D, Gieré R. Generation of shock lamellae and melting in rocks by lightning‐induced shock waves and electrical heating. Geophysical Research Letters. 2017; 44(17): 8757–8768. doi: 10.1002/2017GL073743
304.Borovsky JE. Lightning energetics: Estimates of energy dissipation in channels, channel radii, and channel‐heating risetimes. Journal of Geophysical Research: Atmospheres. 1998; 103(D10): 11537–11553. doi: 10.1029/98JD00417
305.Testé P, Leblanc T, Uhlig F, Chabrerie JP. 3D modeling of the heating of a metal sheet by a moving arc: application to aircraft lightning protection. The European Physical Journal Applied Physics. 2000; 11(3): 197–204. doi: 10.1051/epjap:2000185
306.Millen SLJ, Murphy A, Catalanotti G, Abdelal G. Coupled thermal-mechanical progressive damage model with strain and heating rate effects for lightning strike damage assessment. Applied Composite Materials. 2019; 26(5): 1437–1459. doi: 10.1007/s10443-019-09782-2
307.Gold E. The heating of a balloon wire by lightning. Nature. 1907; 76(1973): 413–414. doi: 10.1038/076413b0
308.Kosarev EL, Zatsepin VG, Mitrofanov AV. Ultrahigh frequency radiation from lightnings. Journal of Geophysical Research. 1970; 75(36): 7524–7530. doi: 10.1029/JC075i036p07524
309.Hill RD. Channel heating in return‐stroke lightning. Journal of Geophysical Research. 1971; 76(3): 637–645. doi: 10.1029/JC076i003p00637
310.Gradov OV, Gradova MA. Microwave enthrakometric labs-on-a-chip and on-chip enthrakometric catalymetry: From non-conventional chemotronics towards microwave-assisted chemosensors. Chemosensors. 2019; 7(4): 48. doi: 10.3390/chemosensors7040048
311.Bogner RL, Hood SL, Somani S, et al. Studies of radioactivity and hydrothermal processes in protobiochemistry on Earth and the Moon. NASA Contractor Report NSEC – 131 (Submitted to: Office of Space Science and Applications Bioscience Programs Division National Aeronautics and Space Administration; Contract No. NASW-1508). 1967. https://ntrs.nasa.gov/citations/19670018044
312.Buchachenko AL, Berdinskii VL. Chemically induced radio-frequency emission and chemical radiophysics. Russian Chemical Reviews. 1983; 52(1): 1–12. doi: 10.1070/RC1983v052n01ABEH002292
313.Zel'dovich YB, Buchachenko AL, Frankevich EL. Magnetic-spin effects in chemistry and molecular physics. Soviet Physics Uspekhi. 1988; 31(5): 385–408. doi: 10.1070/PU1988v031n05ABEH005436
314.Buchachenko AL, Frankevich EL. Chemical generation and reception of radio-and microwaves. Weinheim – New York – Cambridge: Wiley – VCH; 1994: 196 p.
315.Buchachenko AL. Magnetic isotope effect: Nuclear spin control of chemical reactions. The Journal of Physical Chemistry A. 2001; 105(44): 9995–10011. doi: 10.1021/jp011261d
316.Buchachenko AL. Zeldovich's spin physics (on the 110th anniversary of the birth of Yakov Borisovich Zeldovich). Physics-Uspekhi. 2024; 67(4): 343–346. doi: 10.3367/UFNe.2024.01.039638
317.Cole FE, Graf ER. Precambrian ELF and abiogenesis. In: ELF and VLF electromagnetic field Effects. New York – London: Plenum Press; 1974: 243–274.
318.Chyba C, Sagan C. Electrical energy sources for organic synthesis on the early Earth. Origins of Life and Evolution of the Biosphere. 1991; 21(1): 3–17. doi: 10.1007/BF01809509
319.Yin Y, Niu L, Zhu X, et al. Non-equilibrium behaviour in coacervate-based protocells under electric-field-induced excitation. Nature Communications. 2016; 7(1): 10658. doi: 10.1038/ncomms10658
320.Pross A, Pascal R. The origin of life: What we know, what we can know and what we will never know. Open Biology. 2013; 3(3): 120190. doi: 10.1098/rsob.120190
321.Lineweaver CH, Schwartzman D. Cosmic thermobiology: thermal constraints on the origin and evolution of life in the universe. In: Origins: Genesis, Evolution and Diversity of Life. New York – Boston – Dordrecht – London - Moscow: Kluwer Academic Publishers; 2004: 233–248. doi: 10.1007/978-1-4020-2718-1_10
322.Trevors JT. Origin of life: Hypothesized roles of high-energy electrical discharges, infrared radiation, thermosynthesis and pre-photosynthesis. Theory in Biosciences. 2012; 131(4): 225–229. doi: 10.1007/s12064-012-0157-2
323.Pascal R. Suitable energetic conditions for dynamic chemical complexity and the living state. Journal of Systems Chemistry. 2012; 3(1): 3. doi: 10.1186/1759-2208-3-3
324.Kovalenko SP. Physicochemical processes that probably originated life. Russian Journal of Bioorganic Chemistry. 2020; 46(5): 675–691. doi: 10.1134/S1068162020050135
325.Southgate C, Robinson A. The role of interpretation in the emergence of life. Origins of Life and Evolution of Biospheres. 2009; 39: 347–348.
326.Goethe JW. Faust : die Tragödie erster und zweiter Teil. Verlagsbuchhandlung Ehm Welk, Schwedt/Oder, 2019.
327.Goethe JW. Faust (Oxford World's Classics). Oxford University Press, Oxford, 2008.
328.Kompanichenko VN. Three stages of the origin-of-life process: Bifurcation, stabilization and inversion. International Journal of Astrobiology. 2008; 7(1): 27–46. doi: 10.1017/S1473550408003890
329.Kompanichenko VN. Changeable hydrothermal media as potential cradle of life on a planet. Planetary and Space Science. 2009; 57(4): 468–476. doi: 10.1016/j.pss.2009.01.008
330.Kompanichenko VN. Stages of transition from precellular organic microsystems to primary prokaryotic communities. Biology Bulletin. 2011; 38(5): 542–550. doi: 10.1134/S1062359011050055
331.Kompanichenko V. Emergence of biological organization through thermodynamic inversion. Front. Biosci. 2014; 6: 208–224. doi: 10.2741/701
332.Kompanichenko VN, Poturay VA, Shlufman KV. Hydrothermal systems of Kamchatka are models of the prebiotic environment. Origins of Life and Evolution of Biospheres. 2015; 45(1): 93–103. doi: 10.1007/s11084-015-9414-x
333.Kompanichenko VN, Poturay VA, Karpov GA. Organic compounds in thermal water: the Mutnovskii area and the Uzon caldera. Journal of Volcanology and Seismology. 2016; 10(5): 305–319. doi: 10.1134/S0742046316050036
334.Kompanichenko VN. Irreversible prebiotic evolution in hydrothermal systems. In: Thermodynamic Inversion: Origin of Living Systems. Cham: Springer International Publishing; 2017: 121–158. doi: 10.1007/978-3-319-46514-2_4
335.Kompanichenko VN. General characteristics of the origin-of-life medium. In: Thermodynamic Inversion: Origin of Living Systems. Cham: Springer International Publishing; 2017: 93–118. doi: 10.1007/978-3-319-46514-2_3
336.Kompanichenko VN. Origin of primary living systems on earth in course of thermodynamic inversion. In: Thermodynamic Inversion: Origin of Living Systems. Cham: Springer International Publishing; 2017: 179–199. doi: 10.1007/978-3-319-46514-2_6
337.Kompanichenko VN. Exploring the Kamchatka geothermal region in the context of life's beginning. Life. 2019; 9(2): 41. doi: 10.3390/life9020041
338.Kompanichenko V, El-Registan G. Advancement of the TI concept: Defining the origin-of-life stages based on the succession of a bacterial cell exit from anabiosis. AIMS Geosciences. 2022; 8(3): 398–437. doi: 10.3934/geosci.2022022
339.Kompanichenko V. Thermodynamic jump from prebiotic microsystems to primary living cells. Sci. 2020; 2(1): 14. doi: 10.3390/sci2010014
340.Kompanichenko VN. Organic matter in hydrothermal systems of Kamchatka: Relevance to the origin of life. Origins of Life and Evolution of the Biosphere. 2009; 30: 338–339.
341.Moiseeva LN. Thermodynamic and kinetic properties of prebiological open systems. In: Chemical Evolution: Physics of the Origin and Evolution of Life: Proceedings of the Fourth Trieste Conference on Chemical Evolution (Trieste, Italy, 4–8 September 1995). Dordrecht – Boston - London: Kluwer Academic Publishers; 1996: 239–247. doi: 10.1007/978-94-009-1710-5_20
342.Pross A, Pascal R. On the emergence of autonomous chemical systems through dissipation kinetics. Life. 2023; 13(11): 2171. doi: 10.3390/life13112171
343.Pascal R, Pross A, Sutherland JD. Towards an evolutionary theory of the origin of life based on kinetics and thermodynamics. Open Biology. 2013; 3(11): 130156. doi: 10.1098/rsob.130156
344.Pratt AJ, Golovko V, Toombs-Ruane H. FeS surface dynamics & molecular evolution. Origins of Life and Evolution of the Biosphere. 2009; 30: 343–344.
345.Barge LM, Branscomb E, Brucato JR, et al. Thermodynamics, disequilibrium, evolution: far-from-equilibrium geological and chemical considerations for origin-of-life research. Origins of Life and Evolution of Biospheres. 2017; 47(1): 39–56. doi: 10.1007/s11084-016-9508-z
346.Plasson R, Bersini H, Brandenburg A. Emergence of protometabolisms and the self-organization of non-equilibrium reaction networks. Origins of Life and Evolution of the Biosphere. 2009; 30: 263–264.
347.Muchowska KB, Varma SJ, Moran J. Nonenzymatic metabolic reactions and life's origins. Chemical Reviews. 2020; 120(15): 7708–7744. doi: 10.1021/acs.chemrev.0c00191
348.Sylvester-Bradley PC. Evolutionary oscillation in prebiology: igneous activity and the origins of life. Origins of life. 1976; 7(1): 9–18. doi: 10.1007/BF01218509
349.Bartsev SI, Mezhevikin VV, Okhonin VA. Life as a set of matter transformation cycles: ecological attributes of life. Advances in Space Research. 2001; 28(4): 607–612. doi: 10.1016/S0273-1177(01)00371-8
350.Preston LJ, Dartnell LR. Planetary habitability: lessons learned from terrestrial analogues. International Journal of Astrobiology. 2014; 13(1): 81–98. doi: 10.1017/S1473550413000398
351.Kereszturi A, Noack L. Review on the role of planetary factors on habitability. Origins of Life and Evolution of Biospheres. 2016; 46(4): 473–486. doi: 10.1007/s11084-016-9504-3
352.Nakashima S, Kebukawa Y, Kitadai N, et al. Geochemistry and the origin of life: From extraterrestrial processes, chemical evolution on earth, fossilized life's records, to natures of the extant life. Life. 2018; 8(4): 39. doi: 10.3390/life8040039
353.Oschmann W, Grasshof M, Gudo M. The early evolution of the planet earth and the origin of life. Senckenbergiana Lethaea. 2002; 82(1): 284–294.
354.Sleep NH. Physical conditions on early earth: Implications for the origin of life. Origins of Life and Evolution of the Biosphere. 1986; 16(3): 179–180. doi: 10.1007/BF02409483
355.Lunine JI. Physical conditions on the early Earth. Philosophical Transactions of the Royal Society B: Biological Sciences. 2006; 361(1474): 1721–1731. doi: 10.1098/rstb.2006.1900
356.Lazcano A, Oro J, Miller SL. Primitive Earth environments: organic syntheses and the origin and early evolution of life. Precambrian Research. 1983; 20(2–4): 259–282. doi: 10.1016/0301-9268(83)90075-7
357.Pearce BK, Tupper AS, Pudritz RE, Higgs PG. Constraining the time interval for the origin of life on Earth. Astrobiology. 2018; 18(3): 343–364. doi: 10.1089/ast.2017.1676
358.Macleod G, McKeown C, Hall AJ, Russell MJ. Hydrothermal and oceanic pH conditions of possible relevance to the origin of life. Origins of Life and Evolution of the Biosphere. 1994; 24(1): 19–41. doi: 10.1007/BF01582038
359.Holm NG, Andersson E. Hydrothermal simulation experiments as a tool for studies of the origin of life on earth and other terrestrial planets: a review. Astrobiology. 2005; 5(4): 444–460. doi: 10.1089/ast.2005.5.444
360.Kawamura K. Hydrothermal microflow technology as a research tool for origin-of-life studies in extreme earth environments. Life. 2017; 7(4): 37. doi: 10.3390/life7040037
361.Barge LM. Considering planetary environments in origin of life studies. Nature communications. 2018; 9(1): 5170. doi: 10.1038/s41467-018-07493-3
362.Cary FC, Deamer DW, Damer BF, et al. Could life have started on Mars? Planetary conditions that assemble and destroy protocells. Life. 2024; 14(3): 415. doi: 10.3390/life14030415
363.Kompanichenko V. The rise of a habitable planet: Four required conditions for the origin of life in the Universe. Geosciences. 2019; 9(2): 92. doi: 10.3390/geosciences9020092
364.Varfolomeev SD. Kinetic models of the prebiological evolution of macromolecules. Mendeleev Communications. 2007; 17(1): 7–9. doi: 10.1016/j.mencom.2007.01.003
365.Demina OV, Kononikhin AS, Laptev AV, et al. Modelling of prebiotic synthesis and selection of peptides under isothermal conditions and thermal cycling mode. Russian Chemical Bulletin. 2012; 61(2): 422–441. doi: 10.1007/s11172-012-0061-4
366.Varfolomeev SD, Lushchekina SV. Prebiotic synthesis and selection of macromolecules: Thermal cycling as a condition for synthesis and combinatorial selection. Geochemistry International. 2014; 52(13): 1197–1206. doi: 10.1134/S0016702914130065
367.Varfolomeev SD, Tsybenova SB, Bykov VI, Goldberg VM. Thermocycle and evolutionary combinatorics in the genesis and evolution of protobiopolymers. Basic kinetic principles. Doklady Physical Chemistry. 2018; 481(2): 117–120. doi: 10.1134/S0012501618080023
368.Varfolomeev SD, Gachok IV. Thermocycle and evolutionary combinatorics of macromolecules: The basis of primary processes of the origin of life. Geochemistry International. 2021; 59(11): 1083–1089. doi: 10.1134/S0016702921110094
369.Avetisov VA. Natural selection in prebiology. Paleontological Journal. 2013; 47(9): 1104–1106. doi: 10.1134/S0031030113090035
370.Varfolomeev SD. Lev Aleksandrovich Blumenfeld and Modern Biochemical Physics. "Solvable" and "Unsolvable" Problems. Biophysics. 2022; 67(4): 499–505. doi: 10.1134/S0006350922040250
371.Muller AW. Life explained by heat engines. In: Genesis-In The Beginning: Precursors of Life, Chemical Models and Early Biological Evolution. Dordrecht: Springer Netherlands; 2012: 321–344. doi: 10.1007/978-94-007-2941-4_16
372.Muller AW. A model for biogenesis based on thermosynthesis. Origins of Life and Evolution of Biospheres. 1994; 24: 253.
373.Muller AW, Schulze-Makuch D. Thermal energy and the origin of life. Origins of Life and Evolution of Biospheres. 2006; 36(2): 177–189. doi: 10.1007/s11084-005-9003-6
374.Muller AW. A mechanism for thermosynthesis based on a thermotropic phase transition in an asymmetric biomembrane. Physiological Chemistry and Physics and Medical NMR. 1993; 25(2): 95–111.
375.Muller AW. Hypothesis: the thermosynthesis model for the origin of life and the emergence of regulation by Ca2+. Essays in Biochemistry. 1996; 31: 103–119.
376.Russell MJ, Hall AJ, Boyce AJ, Fallick AE. On hydrothermal convection systems and the emergence of life. Economic Geology. 2005; 100(3): 419–438. doi: 10.2113/gsecongeo.100.3.419
377.Muller AW. Thermosynthesis: where biology meets thermodynamics. In: Ługowski W, Matsuno K, eds. Uroboros or biology between mythology and philosophy. Warszawa: Arboretum; 1998: 139–167.
378.Trevors JT, Pollack GH. Origin of microbial life hypothesis: A gel cytoplasm lacking a bilayer membrane, with infrared radiation producing exclusion zone (EZ) water, hydrogen as an energy source and thermosynthesis for bioenergetics. Biochimie. 2012; 94(1): 258–262. doi: 10.1016/j.biochi.2011.10.003
379.Muller AW. Thermosynthesis as energy source for the RNA World: A model for the bioenergetics of the origin of life. Biosystems. 2005; 82(1): 93–102. doi: 10.1016/j.biosystems.2005.06.003
380.Muller AW. Thermosynthesis niches in the solar system. Origins of Life and Evolution of the Biosphere. 2000; 30: 377–378.
381.Muller AW. Finding extraterrestrial organisms living on thermosynthesis. Astrobiology. 2003; 3(3): 555–564. doi: 10.1089/153110703322610654
382.Day T. Computability, Gödel's incompleteness theorem, and an inherent limit on the predictability of evolution. Journal of the Royal Society Interface. 2011; 9(69): 624. doi: 10.1098/rsif.2011.0434
383.Duží M. Kurt Gödel. Metamathematical results on formally undecidable propositions: Completeness vs. Incompleteness. Organon F. 2005; 12(4): 447–474.
384.Manzano M, Alonso E. Completeness: from Gödel to Henkin. History and Philosophy of Logic. 2014; 35(1): 50–75. doi: 10.1080/01445340.2013.816555
385.Brändas EJ. Gödelian structures and self‐organization in biological systems. International Journal of Quantum Chemistry. 2011; 111(7‐8): 1321–1332. doi: 10.1002/qua.22924
386.Zizzi P, Pregnolato M. Non-Turing computable origin of cellular life. Journal of Consciousness Exploration & Research. 2013; 4(10): 1062–1065.
387.Kiefer C. Gödel's undecidability theorems and the search for a theory of everything. International Journal of Theoretical Physics. 2024; 63(2): 52. doi: 10.1007/s10773-024-05567-3
388.Martin W, Russell MJ. On the origin of biochemistry at an alkaline hydrothermal vent. Philosophical Transactions of the Royal Society B: Biological Sciences. 2007; 362(1486): 1887–1926. doi: 10.1098/rstb.2006.1881
389.Martin W, Baross J, Kelley D, Russell MJ. Hydrothermal vents and the origin of life. Nature Reviews Microbiology. 2008; 6(11): 805–814. doi: 10.1038/nrmicro1991
390.Russell MJ, Hall AJ, Martin W. Serpentinization as a source of energy at the origin of life. Geobiology. 2010; 8(5): 355–371. doi: 10.1111/j.1472-4669.2010.00249.x
391.Lane N, Martin WF. The origin of membrane bioenergetics. Cell. 2012; 151(7): 1406–1416. doi: 10.1016/j.cell.2012.11.050
392.Martin WF. Carbon–metal bonds: rare and primordial in metabolism. Trends in Biochemical Sciences. 2019; 44(9): 807–818. doi: 10.1016/j.tibs.2019.04.010
393.Martin WF. Narrowing gaps between Earth and life. Proceedings of the National Academy of Sciences. 2022; 119(46): e2216017119. doi: 10.1073/pnas.2216017119
394.Mielke RE, Russell MJ, Wilson PR, et al. Design, fabrication, and test of a hydrothermal reactor for origin-of-life experiments. Astrobiology. 2010; 10(8): 799–810. doi: 10.1089/ast.2009.0456
395.White LM, Shibuya T, Vance SD, et al. Simulating serpentinization as it could apply to the emergence of life using the JPL hydrothermal reactor. Astrobiology. 2020; 20(3): 307–326. doi: 10.1089/ast.2019.2146
396.Früh-Green GL, Connolly JA, Plas A, et al. Serpentinization of oceanic peridotites: implications for geochemical cycles and biological activity. The Subseafloor Biosphere at Mid-Ocean Ridges. 2004; 144: 119–136. doi: 10.1029/144GM08
397.Schrenk MO, Brazelton WJ, Lang SQ. Serpentinization, carbon, and deep life. Reviews in Mineralogy and Geochemistry. 2013; 75(1): 575–606. doi: 10.2138/rmg.2013.75.18
398.Tiago I, Veríssimo A. Microbial and functional diversity of a subterrestrial high pH groundwater associated to serpentinization. Environmental Microbiology. 2013; 15(6): 1687–1706. doi: 10.1111/1462-2920.12034
399.Twing KI, Brazelton WJ, Kubo MD, et al. Serpentinization-influenced groundwater harbors extremely low diversity microbial communities adapted to high pH. Frontiers in Microbiology. 2017; 8: 308. doi: 10.3389/fmicb.2017.00308
400.Emmanuel S, Berkowitz B. Suppression and stimulation of seafloor hydrothermal convection by exothermic mineral hydration. Earth and Planetary Science Letters. 2006; 243(3–4): 657–668. doi: 10.1016/j.epsl.2006.01.028
401.Allen DE, Seyfried Jr WE. Serpentinization and heat generation: constraints from Lost City and Rainbow hydrothermal systems. Geochimica et Cosmochimica Acta. 2004; 68(6): 1347–1354. doi: 10.1016/j.gca.2003.09.026
402.Zulumyan N, Mirgorodski A, Isahakyan A, Beglaryan H. The mechanism of decomposition of serpentines from peridotites on heating. Journal of Thermal Analysis and Calorimetry. 2014; 115(2): 1003–1012. doi: 10.1007/s10973-013-3323-5
403.Oze C, Sharma M. Serpentinization and the inorganic synthesis of H2 in planetary surfaces. Icarus. 2007; 186(2): 557–561. doi: 10.1016/j.icarus.2006.09.013
404.Holm NG, Oze C, Mousis O, et al. Serpentinization and the formation of H2 and CH4 on celestial bodies (planets, moons, comets). Astrobiology. 2015; 15(7): 587–600. doi: 10.1089/ast.2014.1188
405.Góbi S, Kereszturi Á. Role of serpentinization in the thermal and connected mineral evolution of planetesimals–evaluating possible consequences for exoplanetary systems. Monthly Notices of the Royal Astronomical Society. 2017; 466(2): 2099–2110. doi: 10.1093/mnras/stw3191
406.Malamud U, Prialnik D. Modeling serpentinization: Applied to the early evolution of Enceladus and Mimas. Icarus. 2013; 225(1): 763–774. doi: 10.1016/j.icarus.2013.04.025
407.Oze C, Sharma M. Have olivine, will gas: serpentinization and the abiogenic production of methane on Mars. Geophysical Research Letters. 2005; 32(10): L10203. doi: 10.1029/2005GL022691
408.Schulte M, Blake D, Hoehler T, McCollom T. Serpentinization and its implications for life on the early Earth and Mars. Astrobiology. 2006; 6(2): 364–376. doi: 10.1089/ast.2006.6.364
409.Scott AN, Oze C. Constructing Mars: Concrete and energy production from serpentinization products. Earth and Space Science. 2018; 5(8): 364–370. doi: 10.1029/2018EA000402
410.Tutolo BM, Tosca NJ. Observational constraints on the process and products of Martian serpentinization. Science Advances. 2023; 9(5): eadd8472. doi: 10.1126/sciadv.add8472
411.Müntener O. Serpentine and serpentinization: A link between planet formation and life. Geology. 2010; 38(10): 959–960. doi: 10.1130/focus102010.1
412.Amador ES, Bandfield JL, Brazelton WJ, Kelley D. The Lost City hydrothermal field: A spectroscopic and astrobiological analogue for Nili Fossae, Mars. Astrobiology. 2017; 17(11): 1138–1160. doi: 10.1089/ast.2016.1606
413.Holm NG, Andersson E. Hydrothermal simulation experiments as a tool for studies of the origin of life on earth and other terrestrial planets: a review. Astrobiology. 2005; 5(4): 444–460. doi: 10.1089/ast.2005.5.444
414.Holm NG, Cairns-Smith AG, Daniel RM, et al. Marine hydrothermal systems and the origin of life: future research. Origins of Life and Evolution of the Biosphere. 1992; 22(1–4): 181–242. doi: 10.1007/BF01808022
415.Colín-García M, Heredia A, Cordero G, et al. Hydrothermal vents and prebiotic chemistry: a review. Boletín de la Sociedad Geológica Mexicana. 2016; 68(3): 599–620. doi: 10.18268/BSGM2016v68n3a13
416.Silva L, Vladilo G, Schulte PM, et al. From climate models to planetary habitability: Temperature constraints for complex life. International Journal of Astrobiology. 2017; 16(3): 244–265. doi: 10.1017/S1473550416000278
417.Russell MJ, Hall AJ, Cairns-Smith AG, Braterman PS. Submarine hot springs and the origin of life. Nature. 1988; 336(6195): 117. doi: 10.1038/336117a0
418.Miller SL, Bada JL. Submarine hot springs and the origin of life. Nature. 1988; 334(6183): 609–611. doi: 10.1038/334609a0
419.Corliss JB. Hot springs and the origin of life. Nature. 1990; 347(6294): 624. doi: 10.1038/347624a0
420.Holm NG. Why are hydrothermal systems proposed as plausible environments for the origin of life? In: Marine Hydrothermal Systems and the Origin of Life: Report of SCOR Working Group 91. Dordrecht: Springer Netherlands; 1992: 5–14. doi: 10.1007/978-94-011-2741-9_2
421.Colín-García M, Villafañe-Barajas S, Camprubí A, et al. Prebiotic chemistry in hydrothermal vent systems. In: Handbook of Astrobiology. Boca Raton: CRC Press; 2018: 297–329.
422.Kolb VM. Prebiotic reactions in water, "on water," in superheated water, solventless, and in the solid state. In: Handbook of Astrobiology. Boca Raton: CRC Press; 2018: 331–340.
423.Liebl V, Novák VJ, Masinovský Z, et al. The evolution of prebiological self-organization: Probable colloid-chemical evolution of first prokaryotic cells. Origins of life. 1984; 14(1): 323–334. doi: 10.1007/BF00933672
424.Keller EF. Self-organization, self-assembly, and the origin of life. In: Mapping the Future of Biology: Evolving Concepts and Theories. Dordrecht: Springer Netherlands; 2009: 131–140. doi: 10.1007/978-1-4020-9636-1_9
425.Lazcano A, Miller SL. The origin and early evolution of life: Prebiotic chemistry, the pre-RNA world, and time. Cell. 1996; 85(6): 793–798. doi: 10.1016/S0092-8674(00)81263-5
426.Pérez-Fernández C, Vega J, Rayo-Pizarroso P, et al. Prebiotic synthesis of noncanonical nucleobases under plausible alkaline hydrothermal conditions. Scientific Reports. 2022; 12(1): 15140. doi: 10.1038/s41598-022-19474-y
427.Cleaves HJ, Bada JL. The prebiotic chemistry of alternative nucleic acids. In: Genesis-In The Beginning: Precursors of Life, Chemical Models and Early Biological Evolution. Dordrecht: Springer Netherlands; 2012: 3–33. doi: 10.1007/978-94-007-2941-4_1
428.Mann V. Thermodynamic properties of nucleic acid bases and nucleosides under hydrothermal conditions. Doctoral dissertation, University of Guelph, 2009.
429.Baaske P, Weinert FM, Duhr S, et al. Extreme accumulation of nucleotides in simulated hydrothermal pore systems. Proceedings of the National Academy of Sciences. 2007; 104(22): 9346–9351. doi: 10.1073/pnas.0609592104
430.Harada KA, Fox SW. The thermal synthesis of amino acids from a hypothetically primitive terrestrial atmosphere. In: Fox SW, ed. The origins of prebiological systems. 1965: 187–201.
431.Hennet RC, Holm NG, Engel MH. Abiotic synthesis of amino acids under hydrothermal conditions and the origin of life: A perpetual phenomenon? Naturwissenschaften. 1992; 79(8): 361–365. doi: 10.1007/BF01140179
432.Imai EI, Honda H, Hatori K, et al. Elongation of oligopeptides in a simulated submarine hydrothermal system. Science. 1999; 283(5403): 831–833. doi: 10.1126/science.283.5403.831
433.Ivanov CP, Slavcheva NN. Some analogies between prebiotic thermal conversions of glycine and metabolic pathways. Origins of Life. 1984; 14(1): 177–184. doi: 10.1007/BF00933656
434.Krampitz G, Fox SW. The condensation of the adenylates of the amino acids common to protein. Proceedings of the National Academy of Sciences. 1969; 62(2): 399–406. doi: 10.1073/pnas.62.2.399
435.Lahav N, White D, Chang S. Peptide formation in the prebiotic era: Thermal condensation of glycine in fluctuating clay environments. Science. 1978; 201(4350): 67–69. doi: 10.1126/science.663639
436.Fishkis M. Steps towards the formation of a protocell: The possible role of short peptides. Origins of Life and Evolution of Biospheres. 2007; 37(6): 537–553. doi: 10.1007/s11084-007-9116-0
437.Matsuno K. Prebiotic interplay between fatty acids and amino acids in hydrothermal environments. In: Origins: Genesis, evolution and diversity of life. New York – Boston – Dordrecht – London – Moscow: Kluwer Academic Publishers; 2004: 169–179. doi: 10.1007/978-1-4020-2718-1_7
438.Ozawa K, Nemoto A, Imai EI, et al. Phosphorylation of nucleotide molecules in hydrothermal environments. Origins of Life and Evolution of the Biosphere. 2004; 34(5): 465–471. doi: 10.1023/B:ORIG.0000043123.66095.67
439.Kawamura K. Monitoring hydrothermal reactions on the millisecond time scale using a micro-tube flow reactor and kinetics of ATP hydrolysis for the RNA world hypothesis. Bulletin of the Chemical Society of Japan. 2000; 73(8): 1805–1811. doi: 10.1246/bcsj.73.1805
440.Feng W, Feng C, Wang B, et al. An amorphous calcium phosphate for drug delivery: ATP provides a phosphorus source and microwave-assisted hydrothermal synthesis. Materials Today Communications. 2020; 25: 101455. doi: 10.1016/j.mtcomm.2020.101455
441.Qi C, Zhu YJ, Zhao XY, et al. Highly stable amorphous calcium phosphate porous nanospheres: microwave‐assisted rapid synthesis using ATP as phosphorus source and stabilizer, and their application in anticancer drug delivery. Chemistry–A European Journal. 2013; 19(3): 981–987. doi: 10.1002/chem.201202522
442.Simoneit BR. Prebiotic organic synthesis under hydrothermal conditions: an overview. Advances in Space Research. 2004; 33(1): 88–94. doi: 10.1016/j.asr.2003.05.004
443.Geisberger TD. Chemical evolution of biomolecules under abiotic hydrothermal conditions. Doctoral dissertation, Technische Universität München, 2022.
444.Morowitz HJ, Tourtellotte ME. The smallest living cells. Scientific American. 1962; 206(3): 117–127. doi: 10.1038/scientificamerican0362-117
445.Luisi PL. Toward the engineering of minimal living cells. The Anatomical Record: An Official Publication of the American Association of Anatomists. 2002; 268(3): 208–214. doi: 10.1002/ar.10155
446.Castellanos M, Wilson DB, Shuler ML. A modular minimal cell model: purine and pyrimidine transport and metabolism. Proceedings of the National Academy of Sciences. 2004; 101(17): 6681–6686. doi: 10.1073/pnas.0400962101
447.Luisi PL, Ferri F, Stano P. Approaches to semi-synthetic minimal cells: A review. Naturwissenschaften. 2006; 93(1): 1–13. doi: 10.1007/s00114-005-0056-z
448.Murtas G. Artificial assembly of a minimal cell. Molecular Biosystems. 2009; 5(11): 1292–1297. doi: 10.1039/b907009k
449.Stano P. Synthetic biology of minimal living cells: Primitive cell models and semi-synthetic cells. Systems and Synthetic Biology. 2010; 4(3): 149–156. doi: 10.1007/s11693-010-9063-z
450.Xu D, Kleineberg C, Vidaković‐Koch T, Wegner SV. Multistimuli sensing adhesion unit for the self‐positioning of minimal synthetic cells. Small. 2020; 16(35): 2002440. doi: 10.1002/smll.202002440
451.Moger-Reischer RZ, Glass JI, Wise KS, et al. Evolution of a minimal cell. Nature. 2023; 620(7972): 122–127. doi: 10.1038/s41586-023-06288-x
452.Preiner M, Xavier JC, Sousa FL, et al. Serpentinization: connecting geochemistry, ancient metabolism and industrial hydrogenation. Life. 2018; 8(4): 41. doi: 10.3390/life8040041
453.Russell MJ, Ponce A. Six 'must-have'minerals for life's emergence: Olivine, pyrrhotite, bridgmanite, serpentine, fougerite and mackinawite. Life. 2020; 10(11): 291. doi: 10.3390/life10110291
454.Wang X, Ouyang Z, Zhuo S, et al. Serpentinization, abiogenic organic compounds, and deep life. Science China Earth Sciences. 2014; 57(5): 878–887. doi: 10.1007/s11430-014-4820-3
455.Omran A, Gonzalez A, Menor-Salvan C, et al. Serpentinization-associated mineral catalysis of the protometabolic formose system. Life. 2023; 13(6): 1297. doi: 10.3390/life13061297
456.Canovas III PA, Hoehler T, Shock EL. Geochemical bioenergetics during low‐temperature serpentinization: An example from the Samail ophiolite, Sultanate of Oman. Journal of Geophysical Research: Biogeosciences. 2017; 122(7): 1821–1847. doi: 10.1002/2016JG003632
457.Schwander L, Brabender M, Mrnjavac N. Serpentinization as the source of energy, electrons, organics, catalysts, nutrients and pH gradients for the origin of LUCA and life. Frontiers in Microbiology. 2023; 14: 1257597. doi: 10.3389/fmicb.2023.1257597
458.Russell MJ, Hall AJ. The emergence of life from iron monosulphide bubbles at a submarine hydrothermal redox and pH front. Journal of the Geological Society. 1997; 154(3): 377–402. doi: 10.1144/gsjgs.154.3.0377
459.Mueller G. Hydrothermally associated organic microspheres from SW Africa and elsewhere. In: Molecular Evolution: Prebiological and Biological. New York - London, MA: Plenum Press; 1972: 379–397. doi: 10.1007/978-1-4684-2013-7_33
460.Budin I, Bruckner RJ, Szostak JW. Formation of protocell-like vesicles in a thermal diffusion column. Journal of the American Chemical Society. 2009; 131(28): 9628–9629. doi: 10.1021/ja9029818
461.Kuo CL, Kuo TJ, Huang MH. Hydrothermal synthesis of ZnO microspheres and hexagonal microrods with sheetlike and platelike nanostructures. The Journal of Physical Chemistry B. 2005; 109(43): 20115–20121. doi: 10.1021/jp0528919
462.Du F, Guo Z, Li G. Hydrothermal synthesis of SnO2 hollow microspheres. Materials Letters. 2005; 59(19–20): 2563–2565. doi: 10.1016/j.matlet.2005.03.051
463.Li Y, Liu J, Huang X, Li G. Hydrothermal synthesis of Bi2WO6 uniform hierarchical microspheres. Crystal Growth & Design. 2007; 7(7): 1350–1355. doi: 10.1021/cg070109e
464.Zheng M, Liu Y, Xiao Y, et al. An easy catalyst-free hydrothermal method to prepare monodisperse carbon microspheres on a large scale. The Journal of Physical Chemistry C. 2009; 113(19): 8455–8459. doi: 10.1021/jp811356a
465.Ryu J, Suh YW, Suh DJ, Ahn DJ. Hydrothermal preparation of carbon microspheres from mono-saccharides and phenolic compounds. Carbon. 2010; 48(7): 1990–1998. doi: 10.1016/j.carbon.2010.02.006
466.Tang G, Wang Y, Chen W, et al. Hydrothermal synthesis and characterization of novel flowerlike MoS2 hollow microspheres. Materials Letters. 2013; 100: 15–18. doi: 10.1016/j.matlet.2013.02.101
467.Zhang X, Huang X, Xue M, et al. Hydrothermal synthesis and characterization of 3D flower-like MoS2 microspheres. Materials Letters. 2015; 148: 67–70. doi: 10.1016/j.matlet.2015.02.069
468.Lai W, Chen C, Ren X, et al. Hydrothermal fabrication of porous hollow hydroxyapatite microspheres for a drug delivery system. Materials Science and Engineering: C. 2016; 62: 166–172. doi: 10.1016/j.msec.2016.01.040
469.Gao M, Wang W, Yang H, Ye BC. Hydrothermal synthesis of hierarchical hollow hydroxyapatite microspheres with excellent fluoride adsorption property. Microporous and Mesoporous Materials. 2019; 289: 109620. doi: 10.1016/j.micromeso.2019.109620
470.Mukhin LM. Volcanic processes and synthesis of simple organic compounds on primitive earth. Origins of life. 1976; 7(4): 355–368. doi: 10.1007/BF00927945
471.Kolesnikov MP, Egorov IA. Metalloporphyrins and molecular complexes of amino acids with porphyrins in juvenile volcanic ash. Origins of Life. 1979; 9(4): 267–277. doi: 10.1007/BF00926820
472.Shock EL. Geochemical constraints on the origin of organic compounds in hydrothermal systems. Origins of Life and Evolution of the Biosphere. 1990; 20(3): 331–367. doi: 10.1007/BF01808115
473.Macleod G, McKeown C, Hall AJ, Russell MJ. Hydrothermal and oceanic pH conditions of possible relevance to the origin of life. Origins of Life and Evolution of the Biosphere. 1994; 24(1): 19–41. doi: 10.1007/BF01582038
474.Schwartz AW. Sidney W. Fox, 1912–1998. Origins of Life and Evolution of the Biosphere. 1999; 29(1): 1–3. doi: 10.1023/A:1006520406737
475.Brack A, Schwartz A. Kaoru Harada 1927–2010. Origins of Life and Evolution of the Biosphere: the Journal of the International Society for the Study of the Origin of Life. 2011; 41(3): 199–200. doi: 10.1007/s11084-011-9242-6
476.Fox SW, Harada K. Thermal copolymerization of amino acids to a product resembling protein. Science. 1958; 128(3333): 1214. doi: 10.1126/science.128.3333.1214
477.Fox SW, Harada K. The thermal copolymerization of amino acids common to protein. Journal of the American Chemical Society. 1960; 82(14): 3745–3751. doi: 10.1021/ja01499a064
478.Fox SW, Harada K, Kendrick J. Production of spherules from synthetic proteinoid and hot water. Science. 1959; 129(3357): 1221–1223. doi: 10.1126/science.129.3357.1221
479.Fox SW. Physical principles and proteinoid experiments in the emergence of life. Studies in the Natural Sciences. 1985; 21: 69–91.
480.Rhodes WG, Flurkey WH, Shipley RM. Thermal protenoids. A project in molecular evolution for the undergraduate biochemistry laboratory. Journal of Chemical Education. 1975; 52(3): 197. doi: 10.1021/ed052p197
481.Rohlfing DL. Thermal polyamino acids: synthesis at less than 100 C. Science. 1976; 193(4247): 68–70. doi: 10.1126/science.935857
482.Saunders MA, Rohlfing DL. Inclusion of nonproteinous amino acids in thermally prepared models for prebiotic protein. BioSystems. 1974; 6(2): 81–92. doi: 10.1016/0303-2647(74)90008-6
483.Fox SW, Waehneldt TV. The therml synthesis of neutral and basic proteinoids. Biochimica et Biophysica Acta (BBA)-Protein Structure. 1968; 160(2): 246–249. doi: 10.1016/0005-2795(68)90088-7
484.Hartmann J, Brand MC, Dose K. Formation of specific amino acid sequences during thermal polymerization of amino acids. BioSystems. 1981; 13(3): 141–147. doi: 10.1016/0303-2647(81)90057-7
485.Fox WS, Ivanov OC. Self-ordering of amino acids in the origin of life and its evolution: Universal regularities in protein primary structure. Comptes Rendus de l'Academie Bulgare des Sciences. 2002; 55(10): 39–42.
486.Ivanov CO, Fox SW. Self-ordering of amino acids in the origin of life and its evolution: From ancient to contemporary proteins. Comptes Rendus de l'Academie Bulgare des Sciences. 2003; 56(3): 27–30.
487.Rohlfing DL. Coacervate-like microspheres from lysine-rich proteinoid. Origins of Life. 1975; 6(1): 203–209. doi: 10.1007/BF01372407
488.Fox SW, Yuyama S. Dynamic phenomena in microspheres from thermal proteinoid. Comparative Biochemistry and Physiology. 1964; 11(3): 317–321. doi: 10.1016/0010-406X(64)90065-4
489.Brooke S, Fox SW. Compartmentalization in proteinoid microspheres. BioSystems. 1977; 9(1): 1–22. doi: 10.1016/0303-2647(77)90013-6
490.Fox SW. A New View of the" Synthesis of Life". Quarterly Journal of the Florida Academy of Sciences. 1968; 31(1): 1–5.
491.Fox SW. Self-assembly of the protocell from a self-ordered polymer. Pr. International Convention of Biochemists (Bangalore, India; 7 September 1967). 1967. https://ntrs.nasa.gov/api/citations/19680013724/downloads/19680013724.pdf
492.Zhu H. On the Origin of Life: A Possible Way from Fox's Microspheres into Primitive Life. SOJ Biochem. 2018; 4(1): 1–7.
493.Hsu LL. Conjugation of proteinoid microspheres: A model of primordial recombination. In: Molecular Evolution: Prebiological and Biological. New York: Plenum Press; 1972: 371–378. doi: 10.1007/978-1-4684-2013-7_32
494.Waehneldt TV, Fox SW. The binding of basic proteinoids with organismic or thermally synthesized polynucleotides. Biochimica et Biophysica Acta (BBA)-Protein Structure. 1968; 160(2): 239–245. doi: 10.1016/0005-2795(68)90087-5
495.Krampitz G, Fox SW. The condensation of the adenylates of the amino acids common to protein. Proceedings of the National Academy of Sciences. 1969; 62(2): 399–406. doi: 10.1073/pnas.62.2.399
496.Lacey Jr JC, Yuki A, Fox SW. Coprecipitation of thermal lysine-rich proteinoids with polyribonucleotides. BioSystems. 1979; 11(1): 1–7. doi: 10.1016/0303-2647(79)90018-6
497.Jungck JR, Fox SW. Synthesis of oligonucleotides by proteinoid microspheres acting on ATP. Naturwissenschaften. 1973; 60(9): 425–427. doi: 10.1007/BF00592892
498.Nakashima T, Fox SW. Formation of peptides from amino acids by single or multiple additions of ATP to suspensions of nucleoproteinoid microparticles. BioSystems. 1981; 14(2): 151–161. doi: 10.1016/0303-2647(81)90068-1
499.Fox SW. Coacervate droplets, proteinoid microspheres, and the genetic apparatus. In: The origin of life and evolutionary biochemistry. New York: Plenum Press; 1974: 119–132. doi: 10.1007/978-1-4684-2139-4_10
500.Fox SW, Nakashima T. The assembly and properties of protobiological structures: The beginnings of cellular peptide synthesis. BioSystems. 1980; 12(3–4): 155–166. doi: 10.1016/0303-2647(80)90012-1
501.Feistel R, Romanovskii YM, Vasil'ev VA. Evolution of Eigen hypercycles occurring in coacervates. Biophysics. 1980; 25(5): 900–906.
502.Faĭstel' R, Romanovskiĭ IuM, Vasil'ev VA. Evoliutsiia gipertsiklov Eĭgena, protekaiushchikh v koatservatakh. Biofizika. 1980; 25(5): 882–887.
503.Red'ko VG. Models of Prebiotic Evolution. Biology Bulletin Reviews. 2021; 11(1): 27–39. doi: 10.1134/S2079086421010064
504.Matsuno K. Natural self-organization of polynucleotides and polypeptides in protobiogenesis: Appearance of a protohypercycle. BioSystems. 1982; 15(1): 1–11. doi: 10.1016/0303-2647(82)90015-8
505.Lacey Jr JC, Mullins Jr DW. The genetic anticode: The role of thermal proteinoids in the development of an hypothesis. In: Molecular Evolution and Protobiology. New York: Plenum Press; 1984: 267–282. doi: 10.1007/978-1-4684-4646-5_18
506.Rohlfing DL. Catalytic activities of thermally prepared poly-α-amino acids: Effect of aging. Science. 1970; 169(3949): 998–1000. doi: 10.1126/science.169.3949.998
507.Dose K. Chemical and catalytical properties of thermal polymers of amino acids (proteinoids). Origins of Life. 1974; 5(1): 239–252. doi: 10.1007/BF00927029
508.Fox SW. Metabolic microspheres: Origins and evolution. Naturwissenschaften. 1980; 67(8): 378–383. doi: 10.1007/BF00405481
509.Nakashima T. Metabolism of proteinoid microspheres. Topics in Current Chemistry. 1987; 139: 58–81.
510.Fox SW, Yuyama S. Effects of the Gram stain on microspheres from thermal polyamino acids. Journal of Bacteriology. 1963; 85(2): 279–283. doi: 10.1128/jb.85.2.279-283.1963
511.Fox SW. The origins of behavior in macromolecules and protocells. Comparative Biochemistry and Physiology Part B: Comparative Biochemistry. 1980; 67(3): 423–436. doi: 10.1016/0305-0491(80)90378-7
512.Fox SW. Thermal proteins in the first life and in the "mind-body" problem. In: Evolution of Information Processing Systems: An Interdisciplinary Approach for a New Understanding of Nature and Society. Berlin, Heidelberg: Springer Berlin Heidelberg; 1992: 203–228. doi: 10.1007/978-3-642-77204-9_10
513.Ishima Y, Przybylski AT, Fox SW. Electrical membrane phenomena in spherules from proteinoid and lecithin. BioSystems. 1981; 13(4): 243–251. doi: 10.1016/0303-2647(81)90002-4
514.Przybylski AT, Stratten WP, Syren RM, Fox SW. Membrane, action, and oscillatory potentials in simulated protocells. Naturwissenschaften. 1982; 69(12): 561–563. doi: 10.1007/BF00431670
515.Przybylski AT, Fox SW. Excitable artificial cells of proteinoid. Applied Biochemistry and Biotechnology. 1984; 10(1): 301–307. doi: 10.1007/BF02783764
516.Przybylski AT, Fox SW. Electrical phenomena in proteinoid cells. In: Modern Bioelectrochemistry. New York: Plenum Press; 1986: 377–396.
517.Matsuno K. Electrical excitability of proteinoid microspheres composed of basic and acidic proteinoids. BioSystems. 1984; 17(1): 11–14. doi: 10.1016/0303-2647(84)90013-5
518.Vaughan G, Przybylski AT, Fox SW. Thermal proteinoids as excitability-inducing materials. BioSystems. 1987; 20(3): 219–223. doi: 10.1016/0303-2647(87)90034-8
519.Masinovský Z, Lozovaya GI, Sivash AA, Drašner M. Porphyrin-proteinoid complexes as models of prebiotic photosensitizers. BioSystems. 1989; 22(4): 305–310. doi: 10.1016/0303-2647(89)90052-0
520.Telegina TA, Masinovsky Z, Sivash AA, et al. Proteinoids as complexes of polyamino acids with melanoidins. Origins of Life and Evolution of the Biosphere. 1990; 20(3): 269–277. doi: 10.1007/BF01808110
521.Kolesnikov MP. Proteinoid microspheres and the process of prebiological photophosphorylation. Origins of Life and Evolution of the Biosphere. 1991; 21(1): 31–37. doi: 10.1007/BF01809510
522.Fox SW, Hefti F, Hartikka J, et al. Pharmacological activities in thermal proteins: relationships in molecular evolution. International Journal of Quantum Chemistry. 1987; 32(14): 347–349. doi: 10.1002/qua.560321429
523.Quirk S. Triggered release from peptide‐proteinoid microspheres. Journal of Biomedical Materials Research Part A. 2010; 92(3): 877–886. doi: 10.1002/jbm.a.32429
524.Mougkogiannis P, Adamatzky A. Low frequency electrical waves in ensembles of proteinoid microspheres. Scientific Reports. 2023; 13(1): 1992. doi: 10.1038/s41598-023-29220-9
525.Mougkogiannis P, Adamatzky A. Light-induced spiking in proteinoids yields Boolean gates. Materials & Design. 2023; 236: 112460. doi: 10.1016/j.matdes.2023.112460
526.Mougkogiannis P, Adamatzky A. Spike trains in PANI-proteinoid nanomaterials with different light pulse rates. Materials Advances. 2024; 5(15): 6090–6113. doi: 10.1039/D4MA00103F
527.Mougkogiannis P, Adamatzky A. Correction: Spike trains in PANI-proteinoid nanomaterials with different light pulse rates. Materials Advances. 2024; 5(15): 6331. doi: 10.1039/D4MA90078J
528.Mougkogiannis P, Adamatzky A. Thermosensory spiking activity of proteinoid microspheres cross-linked by actin filaments. Langmuir. 2024; 40(24): 12649–12670. doi: 10.1021/acs.langmuir.4c00834
529.Mougkogiannis P, Adamatzky A. The effects of omeprazole on the neuron-like spiking of the electrical potential of proteinoid microspheres. Molecules. 2024; 29(19): 4700. doi: 10.3390/molecules29194700
530.Mougkogiannis P, Adamatzky A. On effect of chloroform on electrical activity of proteinoids. Biomimetics. 2024; 9(7): 380. doi: 10.3390/biomimetics9070380
531.Mougkogiannis P, Phillips N, Adamatzky A. Transfer functions of proteinoid microspheres. Biosystems. 2023; 227: 104892. doi: 10.1016/j.biosystems.2023.104892
532.Mougkogiannis P, Raeisi Kheirabadi N, Chiolerio A, Adamatzky A. Electrical spiking activity of proteinoids-ZnO colloids. Neuromorphic Computing and Engineering. 2024; 4(1): 014007. doi: 10.1088/2634-4386/ad1d3a
533.Mougkogiannis P, Adamatzky A. Memfractance of proteinoids. ACS omega. 2024; 9(13): 15085–15100. doi: 10.1021/acsomega.3c09542
534.Mougkogiannis P, Adamatzky A. Proto–neural networks from thermal proteins. Biochemical and Biophysical Research Communications. 2024; 709: 149725. doi: 10.1016/j.bbrc.2024.149725
535.Mougkogiannis P, Adamatzky A. Proteinoid microspheres as protoneural networks. ACS omega. 2023; 8(38): 35417–35426. doi: 10.1021/acsomega.3c05304
536.Mougkogiannis P, Adamatzky A. Proto-neurons from abiotic polypeptides. Encyclopedia. 2024; 4(1): 512–543. doi: 10.3390/encyclopedia4010033
537.Nikolaidou A, Mougkogiannis P, Adamatzky A. Electroactive composite biofilms integrating kombucha, chlorella and synthetic proteinoid proto–brains. Royal Society Open Science. 2024; 11(5): 240238. doi: 10.1098/rsos.240238
538.Mougkogiannis P, Nikolaidou A, Adamatzky A. Light-induced spiking response in proteinoid–actin–kombucha system. Materials Advances. 2024; 5(22): 9061–9091. doi: 10.1039/D4MA00607K
539.Adamatzky A. Towards proteinoid computers. Hypothesis paper. Biosystems. 2021; 208: 104480. doi: 10.1016/j.biosystems.2021.104480
540.Mougkogiannis P, Adamatzky A. Learning in ensembles of proteinoid microspheres. Royal Society Open Science. 2023; 10(10): 230936. doi: 10.1098/rsos.230936
541.Mougkogiannis P, Adamatzky A. On interaction of proteinoids with simulated neural networks. BioSystems. 2024; 237: 105175. doi: 10.1016/j.biosystems.2024.105175
542.Mougkogiannis P, Adamatzky A. Recognition of sounds by ensembles of proteinoids. Materials Today Bio. 2024; 25: 100989. doi: 10.1016/j.mtbio.2024.100989
543.Snyder WD, Fox SW. A model for the origin of stable protocells in a primitive alkaline ocean. BioSystems. 1975; 7(2): 222–229. doi: 10.1016/0303-2647(75)90033-0
544.Curley AN, Petersen SV, Edie SM, Guo W. Biologically driven isotopic fractionations in bivalves: from palaeoenvironmental problem to palaeophysiological proxy. Biological Reviews. 2023; 98(4): 1016–1032. doi: 10.1111/brv.12941
545.Bowen HJM. Biological fractionation of isotopes. The International journal of applied radiation and isotopes. 1960; 7(4): 261–272. doi: 10.1016/0020-708X(60)90020-4
546.Galimov E. The biological fractionation of isotopes. Orlando – San Diego – New York – London – Toronto – Montreal - Sydney – Tokyo: Academic Press; 1985: 270 p.
547.Rohlfing DL. The development of the proteinoid model for the origin of life. In: Molecular Evolution and Protobiology. New York - London: Plenum Press; 1984: 29–43. doi: 10.1007/978-1-4684-4646-5_3
548.McAlhaney WW, Rohlfing DL. Formation of proteinoid microspheres under simulated prebiotic atmospheres and individual gases. BioSystems. 1976; 8(2): 45–50. doi: 10.1016/0303-2647(76)90008-7
549.Fouche Jr CE, Rohlfing DL. Thermal polymerization of amino acids under various atmospheres or at low pressures. BioSystems. 1976; 8(2): 57–65. doi: 10.1016/0303-2647(76)90009-9
550.Saunders MA, Rohlfing DL. Polyamino acids: preparation from reported proportions of "prebiotic" and extraterrestrial amino acids. Science. 1972; 176(4031): 172–173. doi: 10.1126/science.176.4031.172
551.Harada K. Some early historical aspects of the thermal polycondensation of amino acids. In: Molecular Evolution and Protobiology. New York - London: Plenum Press; 1984: 15–28. doi: 10.1007/978-1-4684-4646-5_2
552.Morowitz HJ. Perspectives on thermodynamics and the origin of life. Advances in biological and medical physics. 1977; 16: 151–163.
553.Bradley WL. Information, Entropy, Thermodynamics and the Origin of Life. Origins of Life and Evolution of The Biosphere. 1994; 24: 380.
554.Matsuno K, Swenson R. Thermodynamics in the present progressive mode and its role in the context of the origin of life. BioSystems. 1999; 51(1): 53–61. doi: 10.1016/S0303-2647(99)00014-6
555.Marsh GE. Thermodynamics and the origin of life. Canadian Journal of Physics. 2022; 100(6): 285–291. doi: 10.1139/cjp-2022-0032
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