• Medientyp: Buch
  • Titel: The geochemical origin of microbes
  • Enthält: The early earth setting and chemical fundamentals -- Origin of organic molecules -- Primordial reaction networks and energy metabolism -- Prebiotic synthesis of monomers and polymers -- Template directed synthesis of polymers -- Innovations on the path to cellularity -- Harnessing energy for escape as free-living cells.
  • Beteiligte: Martin, William F. [Verfasser:in]; Kleinermanns, Karl [Verfasser:in]
  • Erschienen: Boca Raton; London; New York: CRC Press, Taylor & Francis Group, 2024
  • Ausgabe: First edition
  • Umfang: xiii, 234 Seiten; Illustrationen, Diagramme
  • Sprache: Englisch
  • ISBN: 9781032457727; 9781032457673
  • RVK-Notation: WF 2000 : Allgemeines
  • Schlagwörter: Biomineralisation > Geomikrobiologie > Biogeochemie > Leben > Entstehung > Evolution
    Fossile Einzeller > Organische Geochemie > Mikroorganismus > Bakterien > Mikroorganismus > Stoffwechsel
    Extremophiler Mikroorganismus > Fossile Einzeller > Chemische Evolution > Energiestoffwechsel
  • Entstehung:
  • Anmerkungen:
  • Beschreibung: "This is a textbook covering the transition from energy releasing reactions on the early Earth to energy releasing reactions that fueled growth in the first microbial cells. It is for teachers and college students with an interest in microbiology, geosciences, biochemistry, evolution, or all of the above. The scope of the book is a quantum departure from existing "origin of life" books in that it starts with basic chemistry and links energy-releasing geochemical processes to the reactions of microbial metabolism. The text reaches across disciplines, providing students of the geosciences an origins/biology interface and bringing a geochemistry/origins interface to students of microbiology and evolution. Beginning with physical chemistry and transitioning across metabolic networks into microbiology, the timeline documents chemical events and organizational states in hydrothermal vents - the only environments known that bridge the gap between spontaneous chemical reactions that we can still observe in nature today and the physiology of microbes that live from H2, CO2, ammonia, phosphorus, inorganic salts and water. Life is a chemical reaction. What it is and how it arose are two sides of the same coin"--

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  • Status: Ausleihbar