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Local and Global Controls on Carbon Isotope Chemostratigraphy

Published online by Cambridge University Press:  07 March 2022

Anne-Sofie Ahm
Affiliation:
Princeton University, New Jersey
Jon Husson
Affiliation:
University of Victoria, British Columbia

Summary

Over million-year timescales, the geologic cycling of carbon controls long-term climate and the oxidation of Earth's surface. Inferences about the carbon cycle can be made from time series of carbon isotopic ratios measured from sedimentary rocks. The foundational assumption for carbon isotope chemostratigraphy is that carbon isotope values reflect dissolved inorganic carbon in a well-mixed ocean in equilibrium with the atmosphere. However, when applied to shallow-water platform environments, where most ancient carbonates preserved in the geological record formed, recent research has documented the importance of considering both local variability in surface water chemistry and diagenesis. These findings demonstrate that carbon isotope chemostratigraphy of platform carbonate rarely represent the average carbonate sink or directly records changes in the composition of global seawater. Understanding what causes local variability in shallow-water settings, and what this variability might reveal about global boundary conditions, are vital questions for the next generation of carbon isotope chemostratigraphers.
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Online ISBN: 9781009028882
Publisher: Cambridge University Press
Print publication: 31 March 2022

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References

Ahm, Anne-Sofie C, Bjerrum, Christian J, Blättler, Clara L, Swart, Peter K, and Higgins, John A. 2018. “Quantifying Early Marine Diagenesis in Shallow-Water Carbonate Sediments.Geochimica et Cosmochimica Acta 236: 140–59.CrossRefGoogle Scholar
Ahm, Anne-Sofie C, Bjerrum, Christian J, and Hoffman, Paul F et al. 2021. “The Ca and Mg Isotope Record of the Cryogenian Trezona Carbon Isotope Excursion.Earth and Planetary Science Letters 568 (August): 117002.CrossRefGoogle Scholar
Ahm, Anne-Sofie C, Maloof, Adam C, and Macdonald, Francis A et al. 2019. “An Early Diagenetic Deglacial Origin for Basal Ediacaran ‘Cap Dolostones’.Earth and Planetary Science Letters 506: 292307.CrossRefGoogle Scholar
Allan, JR, and Matthews, Richard K. 1977. “Carbon and Oxygen Isotopes as Diagenetic and Stratigraphic Tools: Surface and Subsurface Data, Barbados, West Indies.Geology 5 (1): 1620.Google Scholar
Allan, JR, and Matthews, Richard K. 1982. “Isotope Signatures Associated with Early Meteoric Diagenesis.Sedimentology 29 (6): 797817.Google Scholar
Banner, Jay L, and Hanson, Gilbert N. 1990. “Calculation of Simultaneous Isotopic and Trace Element Variations During Water-Rock Interaction with Applications to Carbonate Diagenesis.Geochimica et Cosmochimica Acta 54 (11): 3123–37.Google Scholar
Barnes, Ben Davis, Husson, Jon M, and Peters, Shanan E. 2020. “Authigenic Carbonate Burial in the Late Devonian–Early Mississippian Bakken Formation (Williston Basin, USA).Sedimentology 67 (4): 2065–94.Google Scholar
Barth, Johannes A. C., Cronin, Aidan A., Dunlop, J, and Kalin, , Robert, M. 2003. “Influence of Carbonates on the Riverine Carbon Cycle in an Anthropogenically Dominated Catchment Basin: Evidence from Major Elements and Stable Carbon Isotopes in the Lagan River (N. Ireland).Chemical Geology 200 (3): 203–16.Google Scholar
Beeler, Scott R, Gomez, Fernando J, and Bradley, Alexander S. 2020. “Controls of Extreme Isotopic Enrichment in Modern Microbialites and Associated Abiogenic Carbonates.Geochimica et Cosmochimica Acta 269: 136–49.CrossRefGoogle Scholar
Berner, Robert A. 2006. “GEOCARBSULF: A Combined Model for Phanerozoic Atmospheric O2 and CO2.Geochimica et Cosmochimica Acta 70 (23): 5653–64.CrossRefGoogle Scholar
Birgel, D, Meister, P, Lundberg, R et al. 2015. “Methanogenesis Produces Strong 13C Enrichment in Stromatolites of Lagoa Salgada, Brazil: A Modern Analogue for Palaeo-/Neoproterozoic Stromatolites?Geobiology 13 (3): 245–66.Google Scholar
Bjerrum, Christian J, and Canfield, Donald E. 2004. “New Insights into the Burial History of Organic Carbon on the Early Earth.Geochemistry, Geophysics, Geosystems 5 (8).CrossRefGoogle Scholar
Bjerrum, Christian J, and Canfield, Donald E.. 2011. “Towards a Quantitative Understanding of the Late Neoproterozoic Carbon Cycle.Proceedings of the National Academy of Sciences 108 (14): 5542.Google Scholar
Blättler, Clara L, and Higgins, John A. 2017. “Testing Urey’s Carbonate–Silicate Cycle Using the Calcium Isotopic Composition of Sedimentary Carbonates.Earth and Planetary Science Letters 479: 241–51.CrossRefGoogle Scholar
Bohrmann, Gerhard, Greinert, Jens, Suess, Erwin, and Torres, Marta. 1998. “Authigenic Carbonates from the Cascadia Subduction Zone and Their Relation to Gas Hydrate Stability.Geology 26 (7): 647–50.2.3.CO;2>CrossRefGoogle Scholar
Bowen, Gabriel J, Maibauer, Bianca J, Kraus, Mary J et al. 2015. “Two Massive, Rapid Releases of Carbon During the Onset of the Palaeocene–Eocene Thermal Maximum.Nature Geoscience 8 (1): 44–7.Google Scholar
Bown, Paul R, Lees, Jackie A, and Young, Jeremy R. 2004. “Calcareous Nannoplankton Evolution and Diversity Through Time.” In Thierstein, Hans R and Young, Jeremy R, “Coccolithophores: From Molecular Processes to Global Impact481508. Berlin, Heidelberg: Springer.Google Scholar
Broecker, Wallace S. 1970. “A Boundary Condition on the Evolution of Atmospheric Oxygen.Journal of Geophysical Research 75 (18): 3553–7.CrossRefGoogle Scholar
Brunet, Frédéric, Dubois, Krystel, Veizer, Jan et al. 2009. “Terrestrial and Fluvial Carbon Fluxes in a Tropical Watershed: Nyong Basin, Cameroon.Chemical Geology 265 (3): 563–72.CrossRefGoogle Scholar
Busch, James F., Hodgin, Eben B., Ahm, Anne-Sofie C., Husson, Jon M., Macdonald, Francis A., Bergmann, Kristin D., Higgins, John A., Strauss, Justin V. 2022. “Global and local drivers of the Ediacaran Shuram carbon isotope excursion.” Earth and Planetary Science Letters 579 (February), 117368.Google Scholar
Campeau, Audrey, Wallin, Marcus B, Giesler, Reiner et al. 2017. “Multiple Sources and Sinks of Dissolved Inorganic Carbon Across Swedish Streams, Refocusing the Lens of Stable C Isotopes.Scientific Reports 7 (1): 114.Google Scholar
Canfield, Donald E, Knoll, Andrew H, Poulton, Simon W, Narbonne, Guy M, and Dunning, Gregory R. 2020. “Carbon Isotopes in Clastic Rocks and the Neoproterozoic Carbon Cycle.American Journal of Science 320 (2): 97124.Google Scholar
Clark, Ian D, Fontes, Jean-Charles, and Fritz, Peter. 1992. “Stable Isotope Disequilibria in Travertine from High pH Waters: Laboratory Investigations and Field Observations from Oman.Geochimica et Cosmochimica Acta 56 (5): 2041–50.Google Scholar
Clarkson, Matthew O, Lenton, Timothy M, Andersen, Morten B et al. 2021. “Upper Limits on the Extent of Seafloor Anoxia During the PETM from Uranium Isotopes.Nature Communications 12 (1): 399.Google Scholar
Claypool, George E, and Kaplan, Isaac R. 1974. “The Origin and Distribution of Methane in Marine Sediments.” In Natural Gases in Marine Sediments, ed. Kaplan, Isaac R, 99139. Springer.Google Scholar
Craig, Harmon. 1953. “The Geochemistry of the Stable Carbon Isotopes.Geochimica et Cosmochimica Acta 3 (2–3): 5392.Google Scholar
Crockford, Peter W, Kunzmann, Marcus, Blättler, Clara L et al. 2020. “Reconstructing Neoproterozoic Seawater Chemistry from Early Diagenetic Dolomite.” Geology..Google Scholar
Anirban, Das, Krishnaswami, S, and Bhattacharya, , Sourendra, K. 2005. “Carbon Isotope Ratio of Dissolved Inorganic Carbon (DIC) in Rivers Draining the Deccan Traps, India: Sources of DIC and Their Magnitudes.Earth and Planetary Science Letters 236 (1): 419–29.Google Scholar
Derry, Louis A. 2010. “A Burial Diagenesis Origin for the Ediacaran Shuram–Wonoka Carbon Isotope Anomaly.Earth and Planetary Science Letters 294 (1–2): 152–62.Google Scholar
Dyer, Blake, Higgins, John A, and Maloof, Adam C. 2017. “A Probabilistic Analysis of Meteorically Altered δ13c Chemostratigraphy from Late Paleozoic Ice Age Carbonate Platforms.Geology 45 (2): 135–8.Google Scholar
Dyer, Blake, Maloof, Adam C, and Higgins, John A. 2015. “Glacioeustasy, Meteoric Diagenesis, and the Carbon Cycle During the Middle Carboniferous.Geochemistry, Geophysics, Geosystems 16 (10): 3383–99.Google Scholar
Eberli, Gregor P, Swart, P K, McNeill, DF et al. 1997. “A Synopsis of the Bahamas Drilling Project: Results from Two Deep Core Borings Drilled on the Great Bahama Bank.” In Proceedings of the Ocean Drilling Program, Initial Reports, 166: 2341.Google Scholar
Fantle, Matthew S, and DePaolo, Donald J. 2007. “Ca Isotopes in Carbonate Sediment and Pore Fluid from ODP Site 807A: The ca2+(aq)–Calcite Equilibrium Fractionation Factor and Calcite Recrystallization Rates in Pleistocene Sediments.Geochimica et Cosmochimica Acta 71 (10): 2524–46.Google Scholar
Fantle, Matthew S, and Higgins, John. 2014. “The Effects of Diagenesis and Dolomitization on Ca and Mg Isotopes in Marine Platform Carbonates: Implications for the Geochemical Cycles of Ca and Mg.Geochimica et Cosmochimica Acta 142: 458–81.Google Scholar
Fantle, Matthew S, Maher, K. M., and DePaolo, D. J.. 2010. “Isotopic Approaches for Quantifying the Rates of Marine Burial Diagenesis.Reviews of Geophysics 48 (3).CrossRefGoogle Scholar
Freeman, Katherine H. 2001. “Isotopic Biogeochemistry of Marine Organic Carbon.Reviews in Mineralogy and Geochemistry 43 (1): 579605.CrossRefGoogle Scholar
Geyman, Emily C, and Maloof, Adam C. 2019. “A Diurnal Carbon Engine Explains 13C-Enriched Carbonates Without Increasing the Global Production of Oxygen.Proceedings of the National Academy of Sciences 116 (49): 24433–9.Google Scholar
Ginsburg, Robert N., 2001. Subsurface Geology of a Prograding Carbonate Platform Margin, Great Bahama Bank: Results of the Bahamas Drilling Project. SEPM Society for Sedimentary Geology Volume 70.CrossRefGoogle Scholar
Gregor, B. 1970. “Denudation of the Continents.Nature 228 (5268): 273–5.CrossRefGoogle ScholarPubMed
Gross, M Grant. 1964. “Variations in the O18/O16 and C13/C12 Ratios of Diagenetically Altered Limestones in the Bermuda Islands.Journal of Geology 72 (2): 170–94.Google Scholar
Gussone, Nikolaus, Ahm, Anne-Sofie C, Lau, Kimberly V, and Bradbury, Harold J. 2020. “Calcium Isotopes in Deep Time: Potential and Limitations.” Chemical Geology: 119601.Google Scholar
Gussone, Nikolaus, Böhm, Florian, Eisenhauer, Anton et al. 2005. “Calcium Isotope Fractionation in Calcite and Aragonite.Geochimica et Cosmochimica Acta 69 (18): 4485–94.Google Scholar
Halverson, Galen P, Hoffman, Paul F, Schrag, Daniel P, Maloof, Adam C, and Hugh, A Rice, N. 2005. “Toward a Neoproterozoic Composite Carbon-Isotope Record.GSA Bulletin 117 (910): 1181–207.Google Scholar
Harper, Brandon B, Puga-Bernabéu, Ángel, Droxler, André W et al. 2015. “Mixed Carbonate–Siliciclastic Sedimentation Along the Great Barrier Reef Upper Slope: A Challenge to the Reciprocal Sedimentation Model.Journal of Sedimentary Research 85 (9): 1019–36.Google Scholar
Hayes, John M, Strauss, Harald, and Kaufman, Alan J. 1999. “The Abundance of 13C in Marine Organic Matter and Isotopic Fractionation in the Global Biogeochemical Cycle of Carbon During the Past 800 Ma.Chemical Geology 161 (1): 103–25.Google Scholar
Haynes, Laura L., and Bärbel, Hönisch. 2020. “The Seawater Carbon Inventory at the Paleocene–Eocene Thermal Maximum.Proceedings of the National Academy of Sciences 117 (39): 24088–95.Google Scholar
Henderson, Gideon M, Slowey, Niall C, and Haddad, Geoff A. 1999. “Fluid Flow Through Carbonate Platforms: Constraints from 234U/238U and Cl in Bahamas Pore-Waters.Earth and Planetary Science Letters 169 (1–2): 99111.CrossRefGoogle Scholar
Higgins, John A, Blättler, Clara L, Lundstrom, EA et al. 2018. “Mineralogy, Early Marine Diagenesis, and the Chemistry of Shallow-Water Carbonate Sediments.Geochimica et Cosmochimica Acta 220: 512–34.Google Scholar
Hoffman, Paul F, Abbot, Dorian S, Ashkenazy, Yosef et al. 2017. “Snowball Earth Climate Dynamics and Cryogenian Geology-Geobiology.Science Advances 3 (11): e1600983.Google Scholar
Hoffman, Paul F, and Lamothe, Kelsey G. 2019. “Seawater-Buffered Diagenesis, Destruction of Carbon Isotope Excursions, and the Composition of Dic in Neoproterozoic Oceans.Proceedings of the National Academy of Sciences 116: 18874–9.Google Scholar
Holland, Steven M. 2020. “The Stratigraphy of Mass Extinctions and Recoveries.Annual Review of Earth and Planetary Sciences 48 (1): 7597.Google Scholar
Hollander, David J, and McKenzie, Judith A. 1991. “CO2 Control on Carbon-Isotope Fractionation During Aqueous Photosynthesis: A Paleo-pCO2 Barometer.Geology 19 (9): 929–32.Google Scholar
Holmden, Chris, Creaser, RA, Muehlenbachs, KLSA, Leslie, SA, and Bergstrom, SM. 1998. “Isotopic Evidence for Geochemical Decoupling Between Ancient Epeiric Seas and Bordering Oceans: Implications for Secular Curves.Geology 26 (6): 567–70.Google Scholar
Holmden, Chris, Panchuk, K, and Finney, S C. 2012. “Tightly Coupled Records of ca and C Isotope Changes During the Hirnantian Glaciation Event in an Epeiric Sea Setting.Geochimica et Cosmochimica Acta 98: 94106.Google Scholar
Hovland, Martin, Talbot, Michael R, Qvale, Henning, Olaussen, Snorre, and Aasberg, Lars. 1987. “Methane-Related Carbonate Cements in Pockmarks of the North Sea.Journal of Sedimentary Research 57 (5): 881–92.Google Scholar
Husson, Jon M, Higgins, John A, Maloof, Adam C, and Schoene, Blair. 2015. “Ca and Mg Isotope Constraints on the Origin of Earth’s Deepest δ13C Excursion.Geochimica et Cosmochimica Acta 160: 243–66.Google Scholar
Husson, Jon M, Linzmeier, Benjamin J, Kitajima, Kouki et al. 2020. “Large Isotopic Variability at the Micron-Scale in ‘Shuram’ Excursion Carbonates from South Australia.Earth and Planetary Science Letters 538: 116211.Google Scholar
Jacobson, Andrew D, and Holmden, Chris. 2008. “δ44Ca Evolution in a Carbonate Aquifer and Its Bearing on the Equilibrium Isotope Fractionation Factor for Calcite.Earth and Planetary Science Letters 270 (3): 349–53.Google Scholar
Keigwin, LD, and Shackleton, NJ. 1980. “Uppermost Miocene Carbon Isotope Stratigraphy of a Piston Core in the Equatorial Pacific.Nature 284 (5757): 613–14.Google Scholar
Keith, ML, and Weber, JN. 1964. “Carbon and Oxygen Isotopic Composition of Selected Limestones and Fossils.Geochimica et Cosmochimica Acta 28 (1011): 1787–816.Google Scholar
Khadka, Mitra B., Martin, Jonathan B., and Jin, Jin. 2014. “Transport of Dissolved Carbon and CO2 Degassing from a River System in a Mixed Silicate and Carbonate Catchment.Journal of Hydrology 513: 391402.Google Scholar
King, Arthur S, and Birge, Raymond T. 1929. “An Isotope of Carbon, Mass 13.Nature 124 (3117): 127–27.Google Scholar
Knauth, L Paul, and Kennedy, Martin J. 2009. “The Late Precambrian Greening of the Earth.Nature 460 (7256): 728–32.Google Scholar
Knoll, AH, Hayes, JM, Kaufman, AJ, Swett, K, and Lambert, IB. 1986. “Secular Variation in Carbon Isotope Ratios from Upper Proterozoic Successions of Svalbard and East Greenland.Nature 321 (6073): 832–8.Google Scholar
Kohout, FA. 1965. “A Hypothesis Concerning Cyclic Flow of Salt Water Related to Geothermal Heating in the Floridan Aquifer.New York Academy of Sciences Transactions 28: 249–71.CrossRefGoogle Scholar
Komar, N, and Zeebe, RE. 2016. “Calcium and Calcium Isotope Changes During Carbon Cycle Perturbations at the End-Permian: End-Permian Calcium Cycle.Paleoceanography 31 (1): 115–30.Google Scholar
Kump, Lee R, and Arthur, Michael A. 1999. “Interpreting Carbon-Isotope Excursions: Carbonates and Organic Matter.Chemical Geology 161 (1–3): 181–98.CrossRefGoogle Scholar
Kump, Lee R, Arthur, M A, Patzkowsky, M E et al. 1999. “A Weathering Hypothesis for Glaciation at High Atmospheric pCO2 During the Late Ordovician.Palaeogeography, Palaeoclimatology, Palaeoecology 152 (1): 173–87.Google Scholar
Laakso, Thomas A, and Schrag, Daniel P. 2020. “The Role of Authigenic Carbonate in Neoproterozoic Carbon Isotope Excursions.Earth and Planetary Science Letters 549: 116534.Google Scholar
Lazar, Boaz, and Erez, Jonathan. 1992. “Carbon Geochemistry of Marine-Derived Brines: I. δ13C Depletions Due to Intense Photosynthesis.Geochimica et Cosmochimica Acta 56 (1): 335–45.Google Scholar
Li, Juan, Xiumian, Hu, Garzanti, Eduardo, and Marcelle, BouDagher-Fadel. 2021. “Climate-Driven Hydrological Change and Carbonate Platform Demise Induced by the Paleocene–Eocene Thermal Maximum (Southern Pyrenees).” Palaeogeography, Palaeoclimatology, Palaeoecology: 110250.Google Scholar
Li, Juan, Xiumian, Hu, Zachos, James C, Garzanti, Eduardo, and BouDagher-Fadel, Marcelle. 2020. “Sea Level, Biotic and Carbon-Isotope Response to the Paleocene–Eocene Thermal Maximum in Tibetan Himalayan Platform Carbonates.Global and Planetary Change 194: 103316.Google Scholar
Loutit, Tom S, and Kennett, James P. 1979. “Application of Carbon Isotope Stratigraphy to Late Miocene Shallow Marine Sediments, New Zealand.Science 204 (4398): 1196–9.Google Scholar
Lowenstam, Heinz A, and Epstein, Samuel. 1957. “On the Origin of Sedimentary Aragonite Needles of the Great Bahama Bank.Journal of Geology 65 (4): 364–75.Google Scholar
Lynch-Stieglitz, Jean, Stocker, Thomas F, Broecker, Wallace S, and Fairbanks, Richard G. 1995. “The Influence of Air-Sea Exchange on the Isotopic Composition of Oceanic Carbon: Observations and Modeling.Global Biogeochemical Cycles 9 (4): 653–65.Google Scholar
Maher, D.T., Santos, I.R., Golsby-Smith, L., Gleeson, J., and Eyre, B.D.. 2013. “Groundwater-Derived Dissolved Inorganic and Organic Carbon Exports from a Mangrove Tidal Creek: The Missing Mangrove Carbon Sink?Limnology and Oceanography 58 (2): 475–88.Google Scholar
McInerney, Francesca A., and Wing, Scott L.. 2011. “The Paleocene-Eocene Thermal Maximum: A Perturbation of Carbon Cycle, Climate, and Biosphere with Implications for the Future.Annual Review of Earth and Planetary Sciences 39 (1): 489516.Google Scholar
Melim, Leslie A, Swart, Peter K, and Maliva, Robert G. 1995. “Meteoric-Like Fabrics Forming in Marine Waters: Implications for the Use of Petrography to Identify Diagenetic Environments.Geology, 4.Google Scholar
Melim, Leslie A, Swart, Peter K., and Maliva, Robert G. 2001. “Meteoric and Marine Burial Diagenesis in the Subsurface of Great Bahama Bank.SEPM Special Publication, 25.Google Scholar
Melim, L.A, Westphal, H, Swart, P.K, Eberli, G. P, and Munnecke, A. 2002. “Questioning Carbonate Diagenetic Paradigms: Evidence from the Neogene of the Bahamas.Marine Geology 185 (1): 2753.Google Scholar
Murray, Sean T., Higgins, John A., Holmden, Chris, Chaojin, Lu, and Swart, Peter K.. 2021. “Geochemical Fingerprints of Dolomitization in Bahamian Carbonates: Evidence from Sulphur, Calcium, Magnesium and Clumped Isotopes.Sedimentology 68 (1): 129.Google Scholar
Naehr, T.H., Rodriguez, N.M., Bohrmann, G., Paull, C.K., and Botz, R.. 2000. “Methane-Derived Authigenic Carbonates Associated with Gas Hydrate Decomposition and Fluid Venting Above the Blake Ridge Diapir.” In Proceedings of the Ocean Drilling Program, 164 Scientific Results. Vol. 164. Proceedings of the Ocean Drilling Program. Ocean Drilling Program.Google Scholar
Nier, Alfred O, and Gulbransen, Earl A. 1939. “Variations in the Relative Abundance of the Carbon Isotopes.Journal of the American Chemical Society 61 (3). ACS Publications: 697–98.Google Scholar
Oehlert, Amanda M, Lamb-Wozniak, Kathryn A, Devlin, Quinn B et al.2012The Stable Carbon Isotopic Composition of Organic Material in Platform Derived Sediments: Implications for Reconstructing the Global Carbon Cycle.Sedimentology 59 (1). Wiley Online Library: 319–35.Google Scholar
Oehlert, Amanda M, and Swart, Peter K. 2014. “Interpreting Carbonate and Organic Carbon Isotope Covariance in the Sedimentary Record.Nature Communications 5 (1). Nature Publishing Group: 17.Google Scholar
Oehlert, Amanda M., and Swart, Peter K.. 2019. “Rolling Window Regression of δ13C and δ18O Values in Carbonate Sediments: Implications for Source and Diagenesis.Depositional Record 5 (3): 613–30.Google Scholar
Opdyke, Bradley N., and Wilkinson, Bruce H.. 1988. “Surface Area Control of Shallow Cratonic to Deep Marine Carbonate Accumulation.Paleoceanography 3 (6): 685703.Google Scholar
Panchuk, Karla M., Holmden, Chris E., and Leslie, Stephen A.. 2006. “Local Controls on Carbon Cycling in the Ordovician Midcontinent Region of North America, with Implications for Carbon Isotope Secular Curves.Journal of Sedimentary Research 76 (2): 200–11.Google Scholar
Pancost, Richard D., Freeman, Katherine H., and Patzkowsky, Mark E.. 1999. “Organic-Matter Source Variation and the Expression of a Late Middle Ordovician Carbon Isotope Excursion.Geology 27 (11): 1015–18.Google Scholar
Patterson, William P, and Walter, Lynn M. 1994. “Depletion of 13C in Seawater ΣCO2 on Modern Carbonate Platforms: Significance for the Carbon Isotopic Record of Carbonates.Geology 22 (10). Geological Society of America: 885–8.Google Scholar
Popp, Brian N, Laws, Edward A, Bidigare, Robert R et al. 1998. “Effect of Phytoplankton Cell Geometry on Carbon Isotopic Fractionation.Geochimica et Cosmochimica Acta 62 (1). Elsevier: 6977.Google Scholar
Prahl, F. G, Ertel, J. R, Goni, M. A, Sparrow, M. A, and Eversmeyer, B. 1994. “Terrestrial Organic Carbon Contributions to Sediments on the Washington Margin.Geochimica et Cosmochimica Acta 58 (14): 3035–48.Google Scholar
Richardson, Christina M., Henrietta Dulai, Brian N. Popp, Kathleen Ruttenberg, and Fackrell, Joseph K.. 2017. “Submarine Groundwater Discharge Drives Biogeochemistry in Two Hawaiian Reefs.Limnology and Oceanography 62 (S1): S348–S363.Google Scholar
Blanco, Rodriguez, Leticia, Gregor P. Eberli, Ralf J. Weger, . 2020. “Periplatform Ooze in a Mixed Siliciclastic-Carbonate System – Vaca Muerta Formation, Argentina.Sedimentary Geology 396: 105521.Google Scholar
Röhl, Ursula, Westerhold, Thomas, Bralower, Timothy J., and Zachos, James C.. 2007. “On the Duration of the Paleocene-Eocene Thermal Maximum (PETM).Geochemistry, Geophysics, Geosystems 8 (12).Google Scholar
Romanek, Christopher S, Grossman, Ethan L, and Morse, John W. 1992. “Carbon Isotopic Fractionation in Synthetic Aragonite and Calcite: Effects of Temperature and Precipitation Rate.Geochimica et Cosmochimica Acta 56 (1). Elsevier: 419–30.CrossRefGoogle Scholar
Ronov, AB, Khain, VE, Balukhovsky, AN, and Seslavinsky, KB. 1980. “Quantitative Analysis of Phanerozoic Sedimentation.Sedimentary Geology 25 (4). Elsevier: 311–25.Google Scholar
Rooney, Alan D, Cantine, Marjorie D, Bergmann, Kristin D et al. 2020. “Calibrating the Coevolution of Ediacaran Life and Environment.Proceedings of the National Academy of Sciences 117 (29). National Academy of Sciences: 16824–30.Google Scholar
Rothman, D.H., Hayes, J.M., and Summons, R.E.. 2003. “Dynamics of the Neoproterozoic Carbon Cycle.Proceedings of the National Academy of Sciences 100 (14): 8124–9.Google Scholar
Saltzman, Matthew R. 2005. “Phosphorus, Nitrogen, and the Redox Evolution of the Paleozoic Oceans.Geology 33 (7). Geological Society of America: 573–6.Google Scholar
Schidlowski, Manfred, Eichmann, Rudolf, and Junge, Christian E. 1975. “Precambrian Sedimentary Carbonates: Carbon and Oxygen Isotope Geochemistry and Implications for the Terrestrial Oxygen Budget.Precambrian Research 2 (1). Elsevier: 169.Google Scholar
Schlager, Wolfgang, Reijmer, John JG, and Droxler, AW. 1994. “Highstand Shedding of Carbonate Platforms.Journal of Sedimentary Research 64 (3b). SEPM Society for Sedimentary Geology: 270–81.Google Scholar
Schoene, Blair. 2014. “U–Th–Pb Geochronology.” In Treatise on Geochemistry, eds. Holland, Heinrich D. and Turekian, Karl K., 2nd ed., 341–78. Elsevier.Google Scholar
Scholle, Peter A, and Arthur, Michael A. 1980. “Carbon Isotope Fluctuations in Cretaceous Pelagic Limestones: Potential Stratigraphic and Petroleum Exploration Tool.AAPG Bulletin 64 (1). American Association of Petroleum Geologists (AAPG): 6787.Google Scholar
Schrag, Daniel P, Berner, Robert A, Hoffman, Paul F, and Halverson, G.P.. 2002. “On the Initiation of a Snowball Earth.Geochemistry, Geophysics, and Geosystems 300.Google Scholar
Schrag, Daniel P, Higgins, John A, Macdonald, Francis A, and Johnston, David T. 2013. “Authigenic Carbonate and the History of the Global Carbon Cycle.Science 339 (6119). American Association for the Advancement of Science: 540–3.Google Scholar
Skulan, Joseph, DePaolo, Donald J., and Owens, Thomas L.. 1997. “Biological Control of Calcium Isotopic Abundances in the Global Calcium Cycle.Geochimica et Cosmochimica Acta 61 (12): 2505–10.CrossRefGoogle Scholar
Sluijs, Appy, Brinkhuis, Henk, Crouch, Erica M. et al. 2008. “Eustatic Variations During the Paleocene-Eocene Greenhouse World.Paleoceanography 23 (4).Google Scholar
Staudigel, Philip T., and Swart, Peter K.. 2019. “A Diagenetic Origin for Isotopic Variability of Sediments Deposited on the Margin of Great Bahama Bank, Insights from Clumped Isotopes.Geochimica et Cosmochimica Acta 258: 97119.Google Scholar
Swanson-Hysell, Nicholas L, Maloof, Adam C, Condon, Daniel J et al. 2015. “Stratigraphy and Geochronology of the Tambien Group, Ethiopia: Evidence for Globally Synchronous Carbon Isotope Change in the Neoproterozoic.Geology 43 (4). Geological Society of America: 323–6.Google Scholar
Swart, Peter K. 2008. “Global Synchronous Changes in the Carbon Isotopic Composition of Carbonate Sediments Unrelated to Changes in the Global Carbon Cycle.Proceedings of the National Academy of Sciences 105 (37). National Academy of Sciences: 13741–5.Google Scholar
Swart, Peter K. 2015. “The Geochemistry of Carbonate Diagenesis: The Past, Present and Future.Sedimentology 62 (5). Wiley Online Library: 12331304.Google Scholar
Swart, Peter K, and Eberli, Gregor P. 2005. “The nature of the δ13C of periplatform sediments: Implications for stratigraphy and the global carbon cycle.Sedimentary Geology 175 (14). Elsevier: 115–29.Google Scholar
Tang, Jianwu, Dietzel, Martin, Böhm, Florian, Köhler, Stephan J, and Eisenhauer, Anton. 2008. “Sr2+/Ca2+ and 44Ca/40Ca Fractionation During Inorganic Calcite Formation: II. Ca Isotopes.Geochimica et Cosmochimica Acta 72 (15). Elsevier: 3733–45.Google Scholar
Tziperman, E., Halevy, I., Johnston, D. T., Knoll, A. H., and Schrag, D. P.. 2011. “Biologically Induced Initiation of Neoproterozoic Snowball-Earth Events.Proceedings of the National Academy of Sciences 108 (37): 15091–6.Google Scholar
Urey, Harold C. 1947. “The Thermodynamic Properties of Isotopic Substances.” Journal of the Chemical Society (Resumed). Royal Society of Chemistry, 562–81.Google Scholar
Urey, Harold C, Aten, A.H.W. Jr., and Keston, Albert S. 1936. “A Concentration of the Carbon Isotope.Journal of Chemical Physics 4 (9). American Institute of Physics: 622–3.Google Scholar
Vahrenkamp, Volker C, Swart, Peter K, and Ruiz, Joaquin. 1991. “Episodic Dolomitization of Late Cenozoic Carbonates in the Bahamas; Evidence from Strontium Isotopes.Journal of Sedimentary Research 61 (6). SEPM Society for Sedimentary Geology: 1002–14.Google Scholar
Walker, James CG, Hays, PB, and Kasting, James F. 1981. “A Negative Feedback Mechanism for the Long-Term Stabilization of Earth’s Surface Temperature.Journal of Geophysical Research: Oceans 86 (C10). Wiley Online Library: 9776–82.Google Scholar
Wanninkhof, Rik. 1985. “Kinetic Fractionation of the Carbon Isotopes 13C and 12C During Transfer of CO2 from Air to Seawater.Tellus B 37B (3): 128–35.Google Scholar
Westerhold, Thomas, Marwan, Norbert, Drury, Anna Joy et al. 2020. “An Astronomically Dated Record of Earth’s Climate and Its Predictability over the Last 66 Million Years.Science 369 (6509). American Association for the Advancement of Science: 1383–7.Google Scholar
Westerhold, Thomas, Ursula Röhl, Roy H. Wilkens, . 2018. “Synchronizing Early Eocene Deep-Sea and Continental Records – Cyclostratigraphic Age Models for the Bighorn Basin Coring Project Drill Cores.Climate of the Past 14 (3): 303–19.Google Scholar
Zachos, James C., Bohaty, Steven M, John, Cedric M et al. 2007. “The Palaeocene–Eocene Carbon Isotope Excursion: Constraints from Individual Shell Planktonic Foraminifer Records.Philosophical Transactions of the Royal Society A: Mathematical, Physical and Engineering Sciences 365 (1856): 1829–42.Google Scholar
Zachos, James C., Röhl, Ursula, Schellenberg, Stephen A. et al. 2005. “Rapid Acidification of the Ocean During the Paleocene-Eocene Thermal Maximum.Science 308 (5728): 1611–5.Google Scholar
Zachos, James C., Wara, Michael W., Bohaty, Steven et al. 2003. “A Transient Rise in Tropical Sea Surface Temperature During the Paleocene-Eocene Thermal Maximum.Science 302 (5650): 1551–4.Google Scholar
Zeebe, Richard E., Bijma, Jelle, and Wolf-Gladrow, Dieter A.. 1999. “A Diffusion-Reaction Model of Carbon Isotope Fractionation in Foraminifera.Marine Chemistry 64 (3): 199227.Google Scholar
Zeebe, Richard E., and Lourens, Lucas J.. 2019. “Solar System Chaos and the Paleocene–Eocene Boundary Age Constrained by Geology and Astronomy.Science 365 (6456): 926–9.Google Scholar
Zhou, Xiaoli, Thomas, Ellen, , Rosalind E. Rickaby, M., Arne, M. E. Winguth, and Zunli, Lu. 2014. “I/Ca Evidence for Upper Ocean Deoxygenation During the PETM.Paleoceanography 29 (10): 964–75.Google Scholar

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Local and Global Controls on Carbon Isotope Chemostratigraphy
  • Anne-Sofie Ahm, Princeton University, New Jersey, Jon Husson, University of Victoria, British Columbia
  • Online ISBN: 9781009028882
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Local and Global Controls on Carbon Isotope Chemostratigraphy
  • Anne-Sofie Ahm, Princeton University, New Jersey, Jon Husson, University of Victoria, British Columbia
  • Online ISBN: 9781009028882
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Local and Global Controls on Carbon Isotope Chemostratigraphy
  • Anne-Sofie Ahm, Princeton University, New Jersey, Jon Husson, University of Victoria, British Columbia
  • Online ISBN: 9781009028882
Available formats
×