Cretaceous Carbonate Platforms
Determine rates of sediment production, rates of aggradation and large-scale facies patterns of Cretaceous platforms and evaluate the differences between platforms of the Cretaceous greenhouse Earth and those of the present-day icehouse Earth.
Construct at least parts of a sea level curve solely from the record of carbonate platforms to avoid the problems of sequence boundaries caused by the change-over from siliciclastics to carbonates or evaporites and vice versa.
Examine the repeated global crises of platforms in the Cretaceous, in particular the puzzling coincidence of world-wide drowning and oceanic anoxia.
Compare early diagenesis and compaction of Cretaceous platforms and their recent counterparts, again with particular emphasis on the effects of the greenhouse Earth.
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- Arthur, M. A., Dean, W. E. and Schlanger, S. O. (1985) Variations in the global carbon cycle during the Cretaceous related to climate, volcanism, and changes in atmospheric CO2, in E. T. Sundquist and W. S. Broecker (eds.), The Carbon Cycles and Atmospheric CO2: Natural Variations Archean to Present, Geophys. Monograph, v. 32, pp. 504–529.CrossRefGoogle Scholar
- Arthur, M. A. and Schianger, S. O. (1979) Cretaceous “oceanic anoxic events” as causal factors in development of reef-reservoired giant oil fields, Amer. Assoc. Petroleum Geologists, Bull. 63, 870–885.Google Scholar
- Berger, W. H. and Winterer, E. L. (1974) Plate stratigraphy and the fluctuating carbonate line, in K. J. Hsu and H. C. Jenkyns (eds.), Pelagic sediments–on land and under the sea, Spec. Publ. Int. Assoc. Sedim., v. 1, pp. 11–48.Google Scholar
- Cloetingh, S. (1986) Intraplate stresses: A new tectonic mechanism for fluctuations of relative sea level, Geology 14, 617–620.Google Scholar
- Corso, W. (1988) Development of the Early Cretaceous northwest Florida carbonate platform Dissert. Univ. Texas at Austin.Google Scholar
- Droxler, A. W., Bruce, C. H., Sager, W. W. and Watkins, D. K. (in press) Pliocene/Pleistocene variations of aragonite content and oxygen-isotope record in Bahamian periplatform ooze (ODP Site 633): evidence for long (.4 Ma) carbonate preservation cycles, Ocean Drilling Program, Final Reports, v. 101.Google Scholar
- Enos, P., Minero, C. J. and Aguayo-C., J. E. (1983) Sedimentation and diagenesis of mid-Cretaceous platform margin east-Central Mexico, with accompanying field guide, Dallas Geol. Soc., Dallas, 1–168.Google Scholar
- Fischer, A. G. (1982) Long-term oscillations recorded in stratigraphy, in W. Berger & J.C.Crowell (eds.), Climate in Earth History, National Acad. Press, Washington, D.C., pp. 97–104.Google Scholar
- Ginsburg, R. N. (ed.) (1975) Tidal deposits, Springer Verlag, New York.Google Scholar
- Ginsburg, R. N. et al. (1986) The Global Sedimentary Geology Program–Report of an International Workshop, Fisher Island, Florida.Google Scholar
- Goldstein, R. H. (1988) Cement stratigraphy of Pennsylvanian Holder Formation, Sacramento Mountains, New Mexico, Amer. Assoc. Petroleum Geologists 72, 425 438.Google Scholar
- Haak, A. B. and Schlager, W. (in press) Compositional variations in calciturbidites due to sealevel fluctuations, Late Quaternary, Bahamas, Geolog. Rundschau.Google Scholar
- Halley, R. B. and Harris, P.M. (1979) Fresh-water cementation of a 1,000-year-old oolite, J. Sedim. Petrol. 49, 969–988.Google Scholar
- Hancock, J. M. and Kauffman, E. G. (1979) The great transgressions of the Late Cretaceous, J. Geol. Soc. London 136, 175–186.Google Scholar
- Hardie, L. A. (1977) Sedimentation on the modern carbonate tidal flats of northwest Andors Island, Bahamas, Johns Hopkins. Univ. Press, Baltimore.Google Scholar
- Hurley, N. F. and Van der Voo, R. (1987) Paleomagnetism of Upper Devonian reefal limestones, Canning Basin, Western Australia, Amer. Geolog. Society, Bull. 98, 138–146.Google Scholar
- Jenkyns, H. C. (1980) Cretaceous anoxic events: from continents to oceans, J. Geol. Soc. London 137, 171–188.Google Scholar
- Koepnick, R. B., Burke, W. H., Denison, R. E., Hetherington, E. A., Nelson, H. F., Otto, J. B. and Waite, L. E. (1985) Construction of the seawater 87Sr/86Sr curve for the Cenozoic and Cretaceous: Supporting data, Chemical Geology 58, 55–81.Google Scholar
- Masse, J. P. and Philip, J. (1981) Cretaceous coral-rudist buildups of France, in D. F. Toomey (ed.), European fossil reef models, Soc. Econ. Paleontologists Mineralogists Spec. Publ. no. 30, pp. 399–426.Google Scholar
- Matthews, R. K. (1984) Oxygen isotope record of ice volume history: 100 million years of glacio-eustatic sea-level fluctuation, in J. Schlee (ed.), Interregional unconformities and hydrocarbon accumulation, Amer. Assoc. Petroleum Geologists, Memoir 36, pp. 97–107.Google Scholar
- McNeill, D. F., Ginsburg, R. N., Shih-Bin R. Chang, Kirschvink, J. L. (1988) Magnetostratigraphic dating of shallow-water carbonates from San Salvador, The Bahamas, Geology 16, 8–12.Google Scholar
- Parrish, J. T. and Barron, E. J. (1986) Paleoclimates and economic geology, Soc. Econ. Paleontologists & Mineralogists, Short Course 18, 1–162.Google Scholar
- Schlanger, S. O. (1981) Shallow-water limestones in oceanic basins as tectonic and paleoceanographic indicators, in J. E. Warme, R. G. Douglas and E. L. Winterer (eds.), The deep sea drilling project: a decade of progress, Soc. Econ. Paleontologists & Mineralogists, Spec. Publ. 32, pp. 209–226.Google Scholar
- Schlanger, S. O., Jenkyns, H.C. and Premoli-Silva, I. (1981) Volcanism and vertical tectonics in the Pacific Basin related to global Cretaceous transgressions, Earth and Planetary Sci. Lett. 52, 435–449.Google Scholar
- Schmoker, J. W. and Halley, R. B. (1982) Carbonate porosity versus depth: a predictable relation for South Florida, Amer. Assoc. Petroleum Geologists, Bull. 66, 2561–2570.Google Scholar
- Shaw, A. B. (1964) Time in Stratigraphy, McGraw-Hill Book Company, New York. Strasser, A. (1988) Shallowing-upward sequences in Purbeckian peritidal carbonates (lowermost Cretaceous, Swiss and French Jura Mountains ), Sedimentology 35, 369–383.Google Scholar
- Toomey, D. F. (1981) European Fossil Reef Models, Soc. Econ. Paleontologists & Mineralogists, Spec. Publ. no. 30.Google Scholar
- Vail, P. R., Mitchum, R. M., Todd, R. G., Widmier, J. M., Thompson, S., Sangree, J. B., Bubb, J. N. and Hatlelid, W. G. (1977) Seismic stratigraphy and global changes of sealevel, in Payton, C. E. (ed.), Seismic stratigraphy–Applications to hydrocarbon exploration, Amer. Assoc. Petroleum Geologists 26, 49–212.Google Scholar
- Watts, A. B. and Ribe, N. M. (1984) On geoid heights and flexure of the lithosphere at seamounts, J. Geophysical Research 89, B13, 11,152–11, 170.Google Scholar
- Wilde, P. and Berry, W. B. N. (1982) Progressive ventilation of the oceans–potential for return to anoxic conditions in the post-Paleozoic, in S. O. Schlanger and M. B. Cita (eds.), Nature and origin of Cretaceous carbon-rich facies, Academic Press, New York, pp. 209–224.Google Scholar
- Wilkinson, B. H., Owen, R. M. and Carroll, A. R. (1985) Submarine hydrothermal weathering, global eustasy and carbonate polymorphism in Phanerozoic marine oolites, J. Sedim. Petrol. 55, 171–183.Google Scholar
- Winterer, E. L., Natland, J.H. and Van Waasbergen, R. (in press) NW Pacific Cretaceous Guyots: Morphology, Stratigraphy and Latitudinal Histories, EOS Transactions.Google Scholar