Tonian Carbonates Record Phosphate‐Rich Shallow Seas
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B. Phillips | N. Tosca | Phoebe A. Cohen | S. Webb | Akshay Mehra | J. Strauss | Sascha Roest-Ellis | J. Richardson
[1] Rachel Reid,et al. Nitrate limitation in early Neoproterozoic oceans delayed the ecological rise of eukaryotes , 2023, Science advances.
[2] S. Sharoni,et al. Rates of seafloor and continental weathering govern Phanerozoic marine phosphate levels , 2022, Nature Geoscience.
[3] N. Planavsky,et al. A sedimentary record of the evolution of the global marine phosphorus cycle , 2022, Geobiology.
[4] B. Phillips,et al. Characterization and Geological Implications of Precambrian Calcite‐Hosted Phosphate , 2022, Geophysical Research Letters.
[5] N. Tosca,et al. Marine phosphate availability and the chemical origins of life on Earth , 2022, Nature Communications.
[6] N. Planavsky,et al. Uranium isotope evidence for extensive shallow water anoxia in the early Tonian oceans , 2022, Earth and Planetary Science Letters.
[7] L. Wu,et al. A Bayesian Approach to Inferring Depositional Ages Applied to a Late Tonian Reference Section in Svalbard , 2022, Frontiers in Earth Science.
[8] J. Bartley,et al. Molar-Tooth Structure as a Window into the Deposition and Diagenesis of Precambrian Carbonate , 2022, Annual Review of Earth and Planetary Sciences.
[9] Phoebe A. Cohen,et al. The earliest history of eukaryotic life: uncovering an evolutionary story through the integration of biological and geological data. , 2021, Trends in ecology & evolution.
[10] A. Knoll,et al. The Sedimentary Geochemistry and Paleoenvironments Project , 2021, Geobiology.
[11] A. Knoll,et al. Cyanobacteria and biogeochemical cycles through Earth history. , 2021, Trends in microbiology.
[12] D. Canfield,et al. Curation and Analysis of Global Sedimentary Geochemical Data to Inform Earth History , 2021, GSA Today.
[13] Weiqi Wang,et al. Development of carbonate-associated phosphate (CAP) as a proxy for reconstructing ancient ocean phosphate levels , 2021 .
[14] A. Czaja,et al. Phosphatic scales in vase‐shaped microfossil assemblages from Death Valley, Grand Canyon, Tasmania, and Svalbard , 2021, Geobiology.
[15] M. Dietzel,et al. Effect of temperature on the transformation of amorphous calcium magnesium carbonate with near-dolomite stoichiometry into high Mg-calcite , 2021 .
[16] D. Johnston,et al. Phanerozoic radiation of ammonia oxidizing bacteria , 2021, Scientific Reports.
[17] N. Planavsky,et al. Nutrient Supply to Planetary Biospheres From Anoxic Weathering of Mafic Oceanic Crust , 2020, Geophysical Research Letters.
[18] Samuel M. Webb,et al. SIXpack: a graphical user interface for XAS analysis using IFEFFIT , 2020, International Tables for Crystallography.
[19] N. Tosca,et al. Experimental constraints on nonskeletal CaCO3 precipitation from Proterozoic seawater , 2020, Geology.
[20] N. Tosca,et al. Mineralogical constraints on Neoproterozoic pCO2 and marine carbonate chemistry , 2020 .
[21] A. Knoll,et al. Ediacaran reorganization of the marine phosphorus cycle , 2020, Proceedings of the National Academy of Sciences.
[22] T. Lenton,et al. Phosphorus-limited conditions in the early Neoproterozoic ocean maintained low levels of atmospheric oxygen , 2020, Nature Geoscience.
[23] G. Shields,et al. Reconstructing Tonian seawater 87Sr/86Sr using calcite microspar , 2020, Geology.
[24] A. Knoll,et al. Carbon isotopes in clastic rocks and the Neoproterozoic carbon cycle , 2020, American Journal of Science.
[25] A. Knoll,et al. Carbonates before skeletons: A database approach , 2020 .
[26] E. Trower,et al. The Enigma of Neoproterozoic Giant Ooids—Fingerprints of Extreme Climate? , 2019, Geophysical Research Letters.
[27] M. Kunzmann,et al. Linking the Bitter Springs carbon isotope anomaly and early Neoproterozoic oxygenation through I/[Ca + Mg] ratios , 2019, Chemical Geology.
[28] D. Stolper,et al. Neoproterozoic to early Phanerozoic rise in island arc redox state due to deep ocean oxygenation and increased marine sulfate levels , 2019, Proceedings of the National Academy of Sciences.
[29] N. Tosca,et al. Fe(II)-carbonate precipitation kinetics and the chemistry of anoxic ferruginous seawater , 2019, Earth and Planetary Science Letters.
[30] Phoebe A. Cohen,et al. It's a protist-eat-protist world: recalcitrance, predation, and evolution in the Tonian-Cryogenian ocean. , 2018, Emerging topics in life sciences.
[31] E. Sperling,et al. The Temporal and Environmental Context of Early Animal Evolution: Considering All the Ingredients of an "Explosion". , 2018, Integrative and comparative biology.
[32] G. Halverson,et al. Dating the late Proterozoic stratigraphic record. , 2018, Emerging topics in life sciences.
[33] A. Bekker,et al. Triple oxygen isotope evidence for limited mid-Proterozoic primary productivity , 2018, Nature.
[34] B. Tutolo,et al. Experimental examination of the Mg-silicate-carbonate system at ambient temperature: Implications for alkaline chemical sedimentation and lacustrine carbonate formation , 2018 .
[35] D. Stolper,et al. A record of deep-ocean dissolved O2 from the oxidation state of iron in submarine basalts , 2018, Nature.
[36] A. Maloof,et al. The Tonian-Cryogenian transition in Northeastern Svalbard , 2017, Precambrian Research.
[37] F. Macdonald,et al. Cryogenian of Yukon , 2017, Precambrian Research.
[38] E. Tziperman,et al. Snowball Earth climate dynamics and Cryogenian geology-geobiology , 2017, Science Advances.
[39] Yosuke Hoshino,et al. The rise of algae in Cryogenian oceans and the emergence of animals , 2017, Nature.
[40] S. Gleeson,et al. New U-Pb constraints on the age of the Little Dal Basalts and Gunbarrel-related volcanism in Rodinia , 2017 .
[41] N. Tosca,et al. Controlled hydroxyapatite biomineralization in an ~810 million-year-old unicellular eukaryote , 2017, Science Advances.
[42] H. Agić,et al. A Tonian age for the Visingsö Group in Sweden constrained by detrital zircon dating and biochronology: implications for evolutionary events , 2017, Geological Magazine.
[43] S. Poulton. Biogeochemistry: Early phosphorus redigested , 2017 .
[44] Y. Goddéris,et al. Paleogeographic forcing of the strontium isotopic cycle in the Neoproterozoic , 2017 .
[45] W. Fischer,et al. Evolution of the global phosphorus cycle , 2016, Nature.
[46] M. Kunzmann,et al. Continental flood basalt weathering as a trigger for Neoproterozoic Snowball Earth , 2016 .
[47] N. Planavsky,et al. A shale-hosted Cr isotope record of low atmospheric oxygen during the Proterozoic , 2016 .
[48] K. Muylaert,et al. Effect of ammonia on the photosynthetic activity of Arthrospira and Chlorella: A study on chlorophyll fluorescence and electron transport , 2016 .
[49] S. Porter. Tiny vampires in ancient seas: evidence for predation via perforation in fossils from the 780–740 million-year-old Chuar Group, Grand Canyon, USA , 2016, Proceedings of the Royal Society B: Biological Sciences.
[50] Prepared. Standard methods for the examination of water and wastewater , 2016 .
[51] A. Niedermayr,et al. Petrography and environmental controls on the formation of Phanerozoic marine carbonate hardgrounds , 2015 .
[52] A. Knoll,et al. Stratigraphic evolution of the Neoproterozoic Callison Lake Formation: Linking the break-up of Rodinia to the Islay carbon isotope excursion , 2015, American Journal of Science.
[53] L. Derry. Causes and consequences of mid‐Proterozoic anoxia , 2015 .
[54] I. Khattech,et al. Standard enthalpy, entropy and Gibbs free energy of formation of “B” type carbonate fluorapatites , 2015 .
[55] A. Knoll,et al. Statistical analysis of iron geochemical data suggests limited late Proterozoic oxygenation , 2015, Nature.
[56] A. Bekker,et al. Thick sulfate evaporite accumulations marking a mid-Neoproterozoic oxygenation event (Ten Stone Formation, Northwest Territories, Canada) , 2015 .
[57] F. Horton. Did phosphorus derived from the weathering of large igneous provinces fertilize the Neoproterozoic ocean? , 2015 .
[58] M. Santosh,et al. Mantle plumes, supercontinents, intracontinental rifting and mineral systems , 2015 .
[59] A. Maloof,et al. Stratigraphy and geochronology of the Tambien Group, Ethiopia: Evidence for globally synchronous carbon isotope change in the Neoproterozoic , 2015 .
[60] L. Schwendenmann,et al. Quantification of octacalcium phosphate, authigenic apatite and detrital apatite in coastal sediments using differential dissolution and standard addition , 2014 .
[61] R. Giegengack,et al. Analyses of fluid inclusions in Neoproterozoic marine halite provide oldest measurement of seawater chemistry , 2014 .
[62] N. Butterfield,et al. Lipid taphonomy in the Proterozoic and the effect of microbial mats on biomarker preservation , 2013 .
[63] D. Schrag,et al. Regulation of atmospheric oxygen during the Proterozoic , 2012 .
[64] A. Knoll,et al. Scale Microfossils from the Mid-Neoproterozoic Fifteenmile Group, Yukon Territory , 2012, Journal of Paleontology.
[65] D. Schrag,et al. Uncovering the Neoproterozoic carbon cycle , 2012, Nature.
[66] D. Erwin,et al. The Cambrian Conundrum: Early Divergence and Later Ecological Success in the Early History of Animals , 2011, Science.
[67] I. McNulty,et al. The MicroAnalysis Toolkit: X‐ray Fluorescence Image Processing Software , 2011 .
[68] Raymond T. Pierrehumbert,et al. Climate of the Neoproterozoic , 2011 .
[69] A. Knoll,et al. Sedimentary talc in Neoproterozoic carbonate successions , 2010 .
[70] David S. Jones,et al. Calibrating the Cryogenian , 2010, Science.
[71] F. Macdonald,et al. Neoproterozoic and early Paleozoic correlations in the western Ogilvie Mountains, Yukon , 2010 .
[72] D. Long,et al. Basin architecture and syndepositional fault activity during deposition of the Neoproterozoic Mackenzie Mountains Supergroup, Northwest Territories, Canada , 2008 .
[73] K. Forchhammer,et al. Ammonia Triggers Photodamage of Photosystem II in the Cyanobacterium Synechocystis sp. Strain PCC 68031[OA] , 2008, Plant Physiology.
[74] K. Karlstrom,et al. Assembly, configuration, and break-up history of Rodinia: A synthesis , 2008 .
[75] A. Maloof,et al. Evolution of the 87Sr/86Sr composition of Neoproterozoic seawater , 2007 .
[76] D. Sumner,et al. Molar tooth structures of the Neoarchean Monteville Formation, Transvaal Supergroup, South Africa. II: A wave‐induced fluid flow model , 2006 .
[77] D. Sumner,et al. Molar tooth structures of the Neoarchean Monteville Formation, Transvaal Supergroup, South Africa. I: Constraints on microcrystalline CaCO3 precipitation , 2006 .
[78] D. Schrag,et al. Combined paleomagnetic, isotopic, and stratigraphic evidence for true polar wander from the Neoproterozoic Akademikerbreen Group, Svalbard, Norway , 2006 .
[79] G. Halverson. A Neoproterozoic Chronology , 2006 .
[80] D. Schrag,et al. Toward a Neoproterozoic composite carbon-isotope record , 2005 .
[81] M Newville,et al. ATHENA, ARTEMIS, HEPHAESTUS: data analysis for X-ray absorption spectroscopy using IFEFFIT. , 2005, Journal of synchrotron radiation.
[82] S. Arnórsson,et al. Precipitation of poorly crystalline antigorite under hydrothermal conditions , 2005 .
[83] P. Falkowski,et al. The co-evolution of the nitrogen, carbon and oxygen cycles in the Proterozoic ocean , 2005 .
[84] S. Blomqvist,et al. Inorganic formation of apatite in brackish seawater from the Baltic Sea: an experimental approach , 2004 .
[85] S. Harlan,et al. Gunbarrel mafic magmatic event: A key 780 Ma time marker for Rodinia plate reconstructions , 2003 .
[86] K. Caldeira,et al. Carbonate Deposition, Climate Stability, and Neoproterozoic Ice Ages , 2003, Science.
[87] D. Kile,et al. On the origin of size-dependent and size-independent crystal growth: Influence of advection and diffusion , 2003 .
[88] F. Mackenzie,et al. Experimental Study of Igneous and Sedimentary Apatite Dissolution: Control of pH, Distance from Equilibrium, and Temperature on Dissolution Rates , 2003 .
[89] Ingvi Gunnarsson,et al. Amorphous silica solubility and the thermodynamic properties of H4SiO°4 in the range of 0° to 350°C at Psat , 2000 .
[90] O. Pokrovsky,et al. Unseeded precipitation of calcium and magnesium phosphates from modified seawater solutions , 1999 .
[91] Toby Tyrrell,et al. The relative influences of nitrogen and phosphorus on oceanic primary production , 1999, Nature.
[92] Awwa,et al. Standard Methods for the examination of water and wastewater , 1999 .
[93] F. Millero,et al. A Chemical Equilibrium Model for Natural Waters , 1998 .
[94] G. Narbonne,et al. Molar-tooth carbonates: shallow subtidal facies of the mid- to late Proterozoic , 1998 .
[95] T. Lyons,et al. MOLAR-TOOTH' STRUCTURES : A GEOCHEMICAL PERSPECTIVE ON A PROTEROZOIC ENIGMA , 1998 .
[96] A. Lasaga. Kinetic theory in the earth sciences , 1998 .
[97] F. Dudás,et al. Geochemistry of the Little Dal basalts: continental tholeiites from the Mackenzie Mountains, Northwest Territories, Canada , 1997 .
[98] G. Muyzer,et al. Skeletal matrices, muci, and the origin of invertebrate calcification. , 1996, Proceedings of the National Academy of Sciences of the United States of America.
[99] P. Van Cappellen,et al. Redox Stabilization of the Atmosphere and Oceans by Phosphorus-Limited Marine Productivity , 1996, Science.
[100] C. Jana,et al. 19F NMR spectroscopy of fluoridated apatites , 1995 .
[101] Michael Whitfield,et al. A chemical model of seawater including dissolved ammonia and the stoichiometric dissociation constant of ammonia in estuarine water and seawater from −2 to 40°C , 1995 .
[102] F. Millero,et al. The chemistry of the anoxic waters in the Framvaren Fjord, Norway , 1995 .
[103] Ellery D. Ingall,et al. Benthic phosphorus regeneration, net primary production, and ocean anoxia: A model of the coupled marine biogeochemical cycles of carbon and phosphorus , 1994 .
[104] R. Jahnke,et al. Evidence for enhanced phosphorus regeneration from marine sediments overlain by oxygen depleted waters , 1994 .
[105] D. Canfield,et al. Biogeochemical cycles of carbon, sulfur, and free oxygen in a microbial mat , 1993, Geochimica et cosmochimica acta.
[106] G. Narbonne,et al. Neoproterozoic reef microstructures from the Little Dal Group, northwestern Canada , 1993 .
[107] L. Delmotte,et al. 19F MAS-NMR Study of Structural Fluorine in Some Natural and Synthetic 2:1 Layer Silicates , 1992 .
[108] A. Knoll,et al. Coastal lithofacies and biofacies associated with syndepositional dolomitization and silicification (Draken Formation, Upper Riphean, Svalbard). , 1991, Precambrian research.
[109] A. Knoll,et al. Carbonate deposition during the late Proterozoic Era: an example from Spitsbergen. , 1990, American journal of science.
[110] V. A. Medvedev,et al. CODATA key values for thermodynamics , 1989 .
[111] W. E. Brown,et al. Octacalcium Phosphate Solubility Product from 4 to 37 °C , 1988, Journal of Research of the National Bureau of Standards.
[112] A. Mucci. Growth kinetics and composition of magnesian calcite overgrowths precipitated from seawater: Quantitative influence of orthophosphate ions , 1986 .
[113] R. Jahnke. The synthesis and solubility of carbonate fluorapatite , 1984 .
[114] A. Mucci. The solubility of calcite and aragonite in seawater at various salinities , 1983 .
[115] J. D. Aitken,et al. Paleomagnetism of the Little Dal lavas, Mackenzie Mountains, Northwest Territories, Canada , 1982 .
[116] J. D. Aitken. Stratigraphy and Sedimentology of the Upper Proterozoic Little Dal Group, Mackenzie Mountains, Northwest Territories , 1981 .
[117] Y. Tardy,et al. Generalized residual alkalinity concept; application to prediction of the chemical evolution of natural waters by evaporation , 1980 .
[118] M. Wedborg,et al. Stability constants of phosphoric acid in seawater of 5–40‰ salinity and temperatures of 5–25°C , 1979 .
[119] A. Abeliovich,et al. Toxicity of ammonia to algae in sewage oxidation ponds , 1976, Applied and environmental microbiology.
[120] S. Chien. Ion-activity products of some apatite minerals , 1972 .
[121] C. Wilson. The Upper Middle Hecla Hoek Rocks of Ny Friesland, Spitsbergen , 1961, Geological Magazine.