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Oldman River

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Journal Article
Published: 01 June 1996
Bulletin of Canadian Petroleum Geology (1996) 44 (2): 202–214.
...Glen S. Stockmal; Paul A. MacKay; Don C. Lawton; Deborah A. Spratt ABSTRACT New structural mapping and seismic interpretation indicate that the triangle zone and related structures exposed along and adjacent to the Oldman River, southern Alberta Foothills, comprise a complicated structure involving...
Journal Article
Published: 01 March 1977
Bulletin of Canadian Petroleum Geology (1977) 25 (1): 92–109.
...M. E. Holter 1 Alberta Research Council, Edmonton, Alberta Copyright © 1977, The Canadian Society of Petroleum Geologists 1977 BULLETIN OF CANADIAN PETROLEUM GEOLOGY VOL. 25, NO. 1, (MARCH 1977) P. 92-109 THE OLDMAN RIVER LEAD-ZINC OCCURRENCE SOUTHWESTERN ALBERTA M. E. HOLTER...
Journal Article
Published: 01 June 1997
Bulletin of Canadian Petroleum Geology (1997) 45 (2): 155–177.
...Anthony P. Hamblin ABSTRACT Regional surface and subsurface correlation of the middle Belly River Group clastic wedge confirms that the Oldman Formation is present throughout southern and central Alberta. The Oldman generally thins to the north and northeast due to depositional thinning...
Journal Article
Published: 05 August 2015
Canadian Journal of Earth Sciences (2015) 52 (8): 630–641.
... ; McCrea et al. 2014 a ). While some rock formations preserve dinosaur tracks in great abundance (e.g., St. Mary River Formation; Currie et al. 1991 ; Nadon 1993 ), other formations are surprisingly depauperate in tracks despite being rich in vertebrate fossil remains (e.g., Oldman and Dinosaur Park...
FIGURES | View All (10)
Journal Article
Published: 01 December 1996
Canadian Journal of Earth Sciences (1996) 33 (12): 1655–1667.
...Darla K. Zelenitsky; L. V. Hills; Philip J. Currie Abstract Examination of a large number of eggshell fragments collected from the Oldman Formation of southern Alberta reveals a greater ootaxonomic diversity than is known from complete eggs or clutches. Three new oogenera and oospecies...
Journal Article
Published: 01 July 1988
Canadian Journal of Earth Sciences (1988) 25 (7): 972–986.
...Philip J. Currie; Dale A. Russell Abstract A partial skeleton of a small theropod found in the Judith River Formation of Dinosaur Provincial Park (Alberta) shows that Chirostenotes pergracilis is the same animal as " Macrophalangia canadensis " and probably " Ornithomimus elegans ." New information...
Journal Article
Published: 01 December 1985
Canadian Journal of Earth Sciences (1985) 22 (12): 1813–1817.
...Michael Clayton Wilson; Philip J. Currie Abstract A partial foot of Stenonychosaurus from the Judith River (Oldman) Formation, Dinosaur Provincial Park, Alberta, shows features in the metatarsus that have not previously been recognized. These include compression of metatarsal II and exclusion...
Journal Article
Published: 01 May 1983
Journal of Paleontology (1983) 57 (3): 599–600.
Journal Article
Published: 01 April 1982
Canadian Journal of Earth Sciences (1982) 19 (4): 894–897.
...Philip J. Currie; Dale A. Russell Abstract A specimen discovered in the Judith River Formation, Dinosaur Provincial Park, documents the presence of a giant pterosaur in Alberta during Campanian times. The element lacks both ends, but is probably a femur. The size suggests that the wingspan...
Image
Vertical profiles for the Oldman River locality, upper Willow Creek Formation (Paleocene) and Oldman River Dam Reservoir, lower Willow Creek Formation (Maastrichtian). The table shows the locations of the samples analyzed in the study area. The Zero datum is the base of the outcrop section.
Published: 01 December 2010
Fig. 3. Vertical profiles for the Oldman River locality, upper Willow Creek Formation (Paleocene) and Oldman River Dam Reservoir, lower Willow Creek Formation (Maastrichtian). The table shows the locations of the samples analyzed in the study area. The Zero datum is the base of the outcrop
Image
Vertical profile for the Oldman River, lower Willow Creek Formation (Maastrichtian). The table shows the sandstone composition in terms of relative percentages of the main authigenic clay minerals. Zero datum is the base of the outcrop section.
Published: 01 September 2009
Fig. 16. Vertical profile for the Oldman River, lower Willow Creek Formation (Maastrichtian). The table shows the sandstone composition in terms of relative percentages of the main authigenic clay minerals. Zero datum is the base of the outcrop section.
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Vertical profile for the Oldman River Dam Reservoir, lower Willow Creek Formation (Maastrichtian). The table shows the sandstone composition in terms of relative percentages of the main authigenic clay minerals. Zero datum is the base of the outcrop section.
Published: 01 September 2009
Fig. 17. Vertical profile for the Oldman River Dam Reservoir, lower Willow Creek Formation (Maastrichtian). The table shows the sandstone composition in terms of relative percentages of the main authigenic clay minerals. Zero datum is the base of the outcrop section.
Image
Vertical profile for the Oldman River locality, upper Willow Creek Formation (Paleocene). The table shows the sandstone composition in terms of relative percentages of the main authigenic clay minerals. Zero datum is the base of the outcrop section.
Published: 01 September 2009
Fig. 18. Vertical profile for the Oldman River locality, upper Willow Creek Formation (Paleocene). The table shows the sandstone composition in terms of relative percentages of the main authigenic clay minerals. Zero datum is the base of the outcrop section.
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—Looking northeast across Oldman River at upper Foremost strata exposed in SE. ¼, Sec. 18, T. 10, R. 16, W. of 4th Mer., near Taber, Alberta. Taber coal seam may be seen about half-way up exposed section.
Published: 01 October 1931
FIG. 5. —Looking northeast across Oldman River at upper Foremost strata exposed in SE. ¼, Sec. 18, T. 10, R. 16, W. of 4th Mer., near Taber, Alberta. Taber coal seam may be seen about half-way up exposed section.
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—Kipp sandstone at type locality on north bank of Oldman River. (Photograph by Theodore A. Link.)
Published: 01 October 1931
FIG. 8. —Kipp sandstone at type locality on north bank of Oldman River. (Photograph by Theodore A. Link.)
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SEM photomicrographs: (A) – smectite and authigenic dickite pore-filling. Note the remnant of authigenic kaolinite between dickite crystals (sample C12, lower Willow Creek Formation, Oldman River Dam Reservoir); (B) – authigenic smectite formed as pore-lining clay (sample 3, lower Willow Creek Formation, Oldman River Dam Reservoir); (C) – alteration of feldspar grain and formation of smectite (sample 3, upper Willow Creek Formation, Oldman River Dam Reservoir); (D) – vermicular aggregates of euhedral crystals of authigenic kaolinite formed as a pore-filling clay that reduced the porosity (sample C5, lower Willow Creek Formation, Oldman River Dam Reservoir); (E) – vermicular aggregates of euhedral crystals of authigenic dickite. Note the blocky shape of the dickite crystals (sample C3, lower Willow Creek Formation, Oldman River Dam Reservoir); (F) – authigenic pore-filling illite-smectite and late diagenetic chlorite. Note that illite-smectite postdate calcite cement and predate chlorite (sample B13, upper Willow Creek Formation, Oldman River Dam Reservoir).
Published: 01 December 2010
Fig. 6. SEM photomicrographs: (A) – smectite and authigenic dickite pore-filling. Note the remnant of authigenic kaolinite between dickite crystals (sample C12, lower Willow Creek Formation, Oldman River Dam Reservoir); (B) – authigenic smectite formed as pore-lining clay (sample 3, lower Willow
Image
Thin section photomicrographs were taken under cross-polarizers: (A) – quartz and chert grains “floating” in calcite cement. Note the corrosion of quartz grain by calcite cement which occurred during late diagenesis (sample 10, lower Willow Creek Formation, Oldman River Dam Reservoir); (B) – polycrystalline quartz grain of metamorphic origin consists of numerous elongate quartz crystals welded together (sample 1, lower Willow Creek Formation, Oldman River Dam Reservoir); (C) – igneous rock fragment probably of volcanic origin. Note the small laths of feldspar and very fine crystallinity (sample C4, lower Willow Creek Formation, Oldman River Dam Reservoir); (D) – high rank metamorphic rock fragment. Note the partial dissolution of the metamorphic rock fragments and development of secondary porosity (sample 12, lower Willow Creek Formation, Oldman River Dam Reservoir); (E) – unaltered feldspar grain (sample 1, lower Willow Creek Formation, Oldman River Dam Reservoir); (F) – deformed muscovite by compaction mechanism. Note the effect of mechanical compaction on porosity (sample C12, lower Willow Creek Formation, Oldman River Dam Reservoir).
Published: 01 December 2010
Fig. 5. Thin section photomicrographs were taken under cross-polarizers: (A) – quartz and chert grains “floating” in calcite cement. Note the corrosion of quartz grain by calcite cement which occurred during late diagenesis (sample 10, lower Willow Creek Formation, Oldman River Dam Reservoir
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SEM and thin section photomicrographs: (A) – quartz grains “floating” in calcite cement. Note the loose grain packing and undeformed muscovite grain (sample 17, lower Willow Creek Formation, Oldman River Dam Reservoir); (B) – quartz grains. Note the presence of long, con-cavo-convex and sutured contacts between quartz grains (sample 17B, upper Willow Creek Formation, Oldman River Dam Reservoir); (C) – authigenic chlorite coating (sample B4, upper Willow Creek Formation, Oldman River Dam Reservoir); (D) – quartz overgrowth and calcite cement-coated quartz grain. Note that calcite coating inhibited further silica cementation (sample 3, lower Willow Creek Formation, Oldman River Dam Reservoir).
Published: 01 December 2010
Fig. 12. SEM and thin section photomicrographs: (A) – quartz grains “floating” in calcite cement. Note the loose grain packing and undeformed muscovite grain (sample 17, lower Willow Creek Formation, Oldman River Dam Reservoir); (B) – quartz grains. Note the presence of long, con-cavo-convex
Image
SEM photomicrographs: (A) – authigenic illite and minute amount of quartz overgrowth. Note the role of illite coating on silica cementation (sample B12, upper Willow Creek Formation, Oldman River Dam Reservoir); (B) – illitization of kaolin minerals and smectite. Note that the timing of dickite formation was before illite because illite forms overgrowths and envelopes the edges of dickite (sample B10, upper Willow Creek Formation, Oldman River Dam Reservoir); (C) – authigenic smectite/chlorite mixed layers (sample B2, upper Willow Creek Formation, Oldman River Dam Reservoir); (D) – quartz overgrowth formed during mesogenesis. Note the intense quartz cementation and the absence of authigenic clay minerals (sample C4, lower Willow Creek Formation, Oldman River Dam Reservoir); (E) – Authigenic dickite and quartz overgrowth both formed during mesognesis (sample K-T B9, lower Willow Creek Formation, highway 22 locality); (F) – Authigenic chlorite engulfed by quartz overgrowth (sample C4, lower Willow Creek Formation, Oldman River Dam Reservoir).
Published: 01 December 2010
Fig. 7. SEM photomicrographs: (A) – authigenic illite and minute amount of quartz overgrowth. Note the role of illite coating on silica cementation (sample B12, upper Willow Creek Formation, Oldman River Dam Reservoir); (B) – illitization of kaolin minerals and smectite. Note that the timing
Journal Article
Published: 01 March 1999
Bulletin of Canadian Petroleum Geology (1999) 47 (1): 31–42.
... formation continuing after inner wedge formation and upper wedge formation broadly synchronous with lower wedge formation. The pattern of inner and outer tectonic wedges is geometrically similar to the pattern of wedging observed in the Oldman River area of southern Alberta. Shortening across the structural...