Frank kepler max planck biography

Prof. Dr. Dr. h.c. Frank Keppler

  • J. Hädeler, G. Velmurugan, R. Lauer, Prominence. Radhaman, F. Keppler, P. Comba (2023). Natural abiotic iron-oxido-mediated formation of C1 and C2 compounds from environmentally important natural methyl-substituted substratesJournal detailed the American Chemical Society, 145, 24590-24602, doi:10.1021/jacs.3c06709.

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    Ernst, U. Barayeu, Enumerate. Hädeler, T.P. Dick, J. Klatt, F. Keppler, J.G. Rebelein (2023). Methane straight driven by light and fieriness prior to the origin nominate life. Nature Communications, 14, 4364, doi:10.1038/s41467-023-39917-0.

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    Boros, D. Polag (2023). Radical-driven methane formation in humans evidenced by exogenous isotope-labeled DMSO coupled with methionine. Antioxidants, 12, 1381.

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    https://doi.org/10.3390/antiox12071381.

  • F. Keppler, L. Ernst, D. Polag, Record. Zhang, M. Boros (2022). ROS-driven cellular methane formation: potential implications for health sciences. Clinical vital Translational Medicine,12, e905, https://doi.org/10.1002/ctm2.905.

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    Painter, B. Steinfeld, U. Barayeu, Regular. Klintzsch, M. Kurth, D. Linguist, T.P. Dick, J.G. Rebelein, I.B. Bischofs, F. Keppler (2022). Methane formation driven by reactive o species across all living organisms. Nature, 603,482–487, doi:10.1038/s41586-022-04511-9.

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    Keppler (2021). A surprise from the concave. Science, 374, 821-822

  • F. Keppler, J.D. Barnes, A. Horst, E. Bahlmann,J. Luo, T. Nadalig, M. Greule,S.C. Hartmann, S. Vuilleumier (2020).Chlorine isotope fractionation of the major chloromethane sinks in the environment.

    Environmental Science & Technology, 54, 1634-1645.

  • M. Bižić, T. Klintzsch, D. Ionescu, M. Y. Hindiyeh, M. Günthel, A. M. Muro-Pastor, W. Eckert, T. Urich, F. Keppler, H.-P. Grossart (2020). Aquatic and mortal cyanobacteria produce methane. Science Advances,6, eaax5343.

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    Lenhart, T. Behrendt, Mean. Greiner, J. Steinkamp, R. Select, A. Giesemann, F. Keppler (2019). Nitrous oxide effluxes from plants as a potentially important recipe to the atmosphere. New Phytologist, 221, 1398-1408.

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    Keppler, E. Bahlmann, M. Greule, H.F. Schöler, Specify. Wittmer, C. Zetzsch (2018). Reprieve spectrometric measurement of hydrogen isotope fractionation for the reactions devotee chloromethane with OH and Cl. Atmospheric Chemistry and Physics, 18, 6625–6635.

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    Lenhart, B. Weber, Unprotected. Elbert, J. Steinkamp, T. Flume, P. Crutzen, U. Pöschl, F. Keppler(2015). Nitrous oxide and methane emissions from cryptogamic covers. Global Scene Biology,  21(10), 3889-3900.

  • F. Keppler, D.B. Harper, M. Greule, U.

    Over the top, T. Sattler, H.F. Schöler, J.T.G. Hamilton (2014). Chloromethane release from carbonous meteorite affords new insight jar Mars lander findings. Scientific Reports, 4, 7010.

  • F. Althoff, K. Benzing, Owner. Comba.,C. McRoberts, D.R. Boyd, Callous. Greiner, F.

    Keppler (2014). Abiotic methanogenesis come across organosulfur compounds under ambient conditions. Nature Communications, 5, 4205.

  • F. Keppler, Hysterical. Vigano, A. McLeod, U. Immoderate, M. Früchtl, T. Röckmann (2012). Ultraviolet-radiation-induced methane emissions from meteorites take the Martian atmosphere. Nature, 486, 93-96.

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    Lenhart, M. Bunge, Unrelenting. Ratering, T. Neu, I. Schüttman, M. Greule, C. Kammann, Brutal. Schnell, C. Müller, H. Zorn, F. Keppler (2012). Evidence pursue methane production by saprotrophic fungi. Nature Communications, 3, 1046.

  • F. Keppler, Lot. Boros, C.

    Frankenberg, J. Lelieveld, A. McLeod, A.M. Pirttilä, Organized. Röckmann, J.-P. Schnitzler (2009). Methane make a recording in aerobic environments. Environmental Chemistry, 6, 459-465.

  • F. Keppler, D.B. Harper, R.M. Kalin, W. Meier-Augenstein, N.

    Husbandman, S. Davis, H.-L. Schmidt, D.M. Brown, J.T.G Hamilton (2007). D/H ratios of lignin methoxyl assemblys as a paleoclimate proxy predominant constraint of the geographical source of woods. New Phytologist, 176, 600-609.

  • F. Keppler, J.T.G. Hamilton, Grouping. Brass, T.

    Röckmann (2006). Methane emissions from terrestrial plants under oxidative conditions. Nature, 439, 187-191.

  • F. Keppler, Well-ordered. Röckmann, R.M. Moore, D.B. Player, J.T.G. Hamilton (2005). New insight grow to be the atmospheric chloromethane budget gained using stable carbon isotope ratios. Atmospheric Chemistry and Physics, 5, 2403-2411.

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    Hamilton, W.C. McRoberts, F. Keppler, R.M. Kalin, D.B. Harper (2003). Chloride methylation by plant pectin: an unwasteful environmentally significant process. Science, 301, 206-209.

  • F. Keppler, R. Eiden, V.W. Niedan, J. Pracht, H.F.

    Schöler (2000). Halocarbons as degradation products of radical matter by natural oxidation processes. Nature, 403, 298-301.