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NARROW
GeoRef Subject
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all geography including DSDP/ODP Sites and Legs
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Canada
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Western Canada
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Alberta (3)
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North America
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Sweetgrass Arch (1)
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Western Interior
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Western Interior Seaway (2)
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-
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United States
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Colorado (3)
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Montana
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Flathead County Montana (1)
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Glacier County Montana (1)
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Liberty County Montana (1)
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Pondera County Montana (1)
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Toole County Montana (1)
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Western U.S. (2)
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Wyoming (1)
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fossils
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Invertebrata
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Mollusca
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Bivalvia
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Pterioida
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Pteriina
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Inocerami
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Inoceramidae (1)
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Cephalopoda
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Ammonoidea (1)
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geochronology methods
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Ar/Ar (2)
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U/Pb (2)
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geologic age
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Mesozoic
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Cretaceous
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Lower Cretaceous
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Albian
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upper Albian (1)
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Upper Cretaceous
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Cardium Formation (2)
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Cenomanian (1)
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Coniacian (2)
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Fort Hays Limestone Member (2)
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Niobrara Formation (2)
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Turonian (1)
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minerals
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silicates
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framework silicates
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feldspar group
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alkali feldspar
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sanidine (1)
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orthosilicates
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nesosilicates
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zircon group
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zircon (1)
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Primary terms
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absolute age (2)
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Canada
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Western Canada
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Alberta (3)
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-
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crust (1)
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Invertebrata
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Mollusca
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Bivalvia
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Pterioida
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Pteriina
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Inocerami
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Inoceramidae (1)
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-
-
-
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Cephalopoda
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Ammonoidea (1)
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-
-
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Mesozoic
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Cretaceous
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Lower Cretaceous
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Albian
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upper Albian (1)
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-
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Upper Cretaceous
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Cardium Formation (2)
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Cenomanian (1)
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Coniacian (2)
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Fort Hays Limestone Member (2)
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Niobrara Formation (2)
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Turonian (1)
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North America
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Sweetgrass Arch (1)
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Western Interior
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Western Interior Seaway (2)
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-
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paleogeography (1)
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sea-level changes (2)
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sedimentary rocks
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clastic rocks
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mudstone (1)
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United States
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Colorado (3)
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Montana
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Flathead County Montana (1)
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Glacier County Montana (1)
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Liberty County Montana (1)
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Pondera County Montana (1)
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Toole County Montana (1)
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Western U.S. (2)
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Wyoming (1)
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-
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sedimentary rocks
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sedimentary rocks
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clastic rocks
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mudstone (1)
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soils
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paleosols (1)
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Geochronology of late Albian–Cenomanian strata in the U.S. Western Interior
Interregional correlation of disconformities in Upper Cretaceous strata, Western Interior Seaway: Biostratigraphic and sequence-stratigraphic evidence for eustatic change: Reply
Integrating 40 Ar/ 39 Ar, U-Pb, and astronomical clocks in the Cretaceous Niobrara Formation, Western Interior Basin, USA
Interregional correlation of disconformities in Upper Cretaceous strata, Western Interior Seaway: Biostratigraphic and sequence-stratigraphic evidence for eustatic change
Rapidly changing styles of subsidence revealed by high-resolution mudstone allostratigraphy: Coniacian of Sweetgrass Arch area, southern Alberta and northern Montana
Cretaceous
Abstract During the Cretaceous (145.5-65.5 Ma; Gradstein et al. 2004 ). Central Europe was part of the European continental plate, which was bordered by the North Atlantic ocean and the Arctic Sea to the NW and north, the Bay of Biscay to the SW, the northern branch of the Tethys Ocean to the south, and by the East European Platform to the east ( Fig. 15.1 ). The evolution of sedimentary basins was influenced by the interplay of two main global processes: plate tectonics and eustatic sea-level change. Plate tectonic reconfigurations resulted in the widening of the Central Atlantic, and the opening of the Bay of Biscay. The South Atlantic opening caused a counter-clockwise rotation of Africa, which was coeval with the closure of the Tethys Ocean. Both motions terminated the Permian-Early Cretaceous North Sea rifting and placed Europe in a transtensional stress field. The long-term eustatic sea-level rise resulted in the highest sea level during Phanerozoic times ( haq et al. 1988;Hardenbol et al. 1998 ). Large epicontinental shelf areas were flooded as a consequence of elevated spreading rates of mid-ocean ridges and intra-oceanic plateau volcanism, causing the development of extended epicontinental shelf seas and shelf-sea basins ( Hays & pitman 1973 ; Larson 1991 ). A new and unique lithofacies type, the pelagic chalk, was deposited in distal parts of the individual basins. Chalk deposition commenced during middle Cenomanian-early Turanian times. Chalk consists almost exclusively of the remains of planktonic coccolithophorid algae and other pelagic organisms, and its great thickness reflects a high rate of production of the algal tests. The bulk of the grains are composed of lowmagnesium calcite, representing coccolith debris with a subordinate amount of foraminifers, calcispheres, small invertebrates and shell fragments of larger invertebrates ( Håkansson et al. 1974 ; Surlyk & Birkelund 1977 ; Nygaard et al. 1983 ; Hancock 1975 , 1993 ).