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Mackenzie Bay

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Journal Article
Published: 01 May 1985
Canadian Journal of Earth Sciences (1985) 22 (5): 758–767.
...Robert J. Horodyski; Kathleen B. Dudek; Gerald M. Ross; J. Allan Donaldson Abstract Spheroidal and filamentous organic-walled microfossils have been detected in ca. 1.7 Ga old cherts of the Hornby Bay Group, Northwest Territories, Canada. The majority of the spheroidal forms range from 1 to 4 μm...
Journal Article
Published: 01 August 1974
Canadian Journal of Earth Sciences (1974) 11 (8): 1123–1135.
...Alfred C. Lenz Abstract A low diversity fauna of brachiopods is described from the top beds of the Whittaker Formation of the central Mackenzies, and the upper part of the Allen Bay Formation, Griffiths Island. The fauna of the two formations together total 10 species, although only two species...
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Fig. 9.
Published: 20 September 2021
Fig. 9. Similar to Fig. 5 , but for Region 3: Mackenzie Bay. Dashed lines show the linear trends.
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Sedimentation rates calculated for the Iperk, Akpak, and Mackenzie Bay sequences in the North Issungnak L-86 and Nektoralik K-59 wells. Dashed line indicates compacted rate; solid line indicates decompacted rate. Note that the base of the Mackenzie Bay Sequence at the Nektoralik location is projected at 2900 m below sea floor (∼85 m below well total depth) from regional isopach trends.
Published: 01 February 2001
Fig. 25. Sedimentation rates calculated for the Iperk, Akpak, and Mackenzie Bay sequences in the North Issungnak L-86 and Nektoralik K-59 wells. Dashed line indicates compacted rate; solid line indicates decompacted rate. Note that the base of the Mackenzie Bay Sequence at the Nektoralik location
Journal Article
Published: 01 September 1992
Bulletin of Canadian Petroleum Geology (1992) 40 (3): 188–197.
.... The Tertiary crustal shortening was accommodated on several thrust faults and decollements, within early Tertiary and older strata. The Demarcation Subbasin fill consists of syntectonic, late Eocene-Oligocene deposits of the Richards and Kugmallit sequences and Miocene deposits of the Mackenzie Bay sequence...
Journal Article
Published: 01 June 1990
Bulletin of Canadian Petroleum Geology (1990) 38 (2): 215–235.
... still lies about 2 km below the base of the Iperk sequence. Hydrocarbons in the Mackenzie Bay and Kugmallit sequences (Miocene and Oligocene, respectively) occur above the main geopressure zone. Throughout most of the basin the shale-rich Richards sequence (Eocene) is characterized by the presence...
Journal Article
Published: 20 September 2021
Canadian Journal of Earth Sciences (2022) 59 (11): 847–865.
...Fig. 9. Similar to Fig. 5 , but for Region 3: Mackenzie Bay. Dashed lines show the linear trends. ...
FIGURES | View All (11)
Journal Article
Journal: AAPG Bulletin
Published: 01 January 1990
AAPG Bulletin (1990) 74 (1): 41–59.
... in multiple sandstone reservoirs of the Oligocene Kugmallit sequence. The upper sandstones are truncated by an unconformity and sealed by the overlying shales of the Miocene Mackenzie Bay sequence. Based on two-dimensional seismic coverage, the field was initially described as structurally simple. Interactive...
FIGURES | View All (17)
Series: AAPG Memoir
Published: 01 January 1976
DOI: 10.1306/M24385C3
EISBN: 9781629812106
... in front of a rising mountain belt. Only a small portion of the Tertiary-Cretaceous basin extends onto the onshore part of this southwest margin. Offshore, the younger strata thicken abruptly into Mackenzie Bay and the Beaufort Sea. During Tertiary time, the rapidly deposited, prograded sediments...
Journal Article
Journal: Geophysics
Published: 01 August 1972
Geophysics (1972) 37 (4): 605–619.
...H. Hofer; W. Varga Abstract Interpretation of lithology and structures from seismic velocity data, Liverpool Bay, Mackenzie Bay GeoRef, Copyright 2008, American Geological Institute. 1972 ...
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Seismic reflection profiles (A, B, C) illustrating variable expressions of the Miocene–Pliocene unconformity (locations in Fig. 3.). Unconformity marked by solid (horizontal) lines. Profile A illustrates truncation of Akpak and Mackenzie Bay sequences at sub-Iperk unconformity and dramatic difference in structural deformation across the unconformity surface. Dotted lines mark top and base of Miocene Mackenzie Bay Sequence. The Netserk F-40 well (solid dark vertical line) encountered Late Pliocene nonmarine sediments above the sub-Iperk unconformity. See text (seismic stratigraphy) for discussions. Profile B illustrates downcutting of the sub-Iperk slope unconformity into Miocene Akpak and Mackenzie Bay shelf sequences. Profile C illustrates onlap of deep-marine Iperk strata onto the Miocene–Pliocene unconformity. Dashed line in profile C marks a Late Pliocene normal fault that offsets the unconformity.
Published: 01 February 2001
Fig. 6. Seismic reflection profiles (A, B, C) illustrating variable expressions of the Miocene–Pliocene unconformity (locations in Fig.  3 .). Unconformity marked by solid (horizontal) lines. Profile A illustrates truncation of Akpak and Mackenzie Bay sequences at sub-Iperk unconformity
Image
—Structural cross section AA′ across the western Beaufort-Mackenzie basin (based on the interpretation of reflection seismic data). AK = Akpak sequence, MB = Mackenzie Bay sequence, KG = Kugmallit sequence, RI = Richards sequence, RND = Reindeer supersequence, CR = Cretaceous. Location shown on Figure 8.
Published: 01 June 1992
Figure 9 —Structural cross section AA′ across the western Beaufort-Mackenzie basin (based on the interpretation of reflection seismic data). AK = Akpak sequence, MB = Mackenzie Bay sequence, KG = Kugmallit sequence, RI = Richards sequence, RND = Reindeer supersequence, CR = Cretaceous. Location
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—Mudstone and sandstone of Upper Cretaceous Tent Island (KTI) and lower Tertiary Moose Channel (TMC) Formations including part of Laramide foredeep on northwest flank of Cache Creek uplift in vicinity of Big Fish River (BFR). Northwesternmost Mackenzie Delta and Mackenzie Bay (MB) in background. NAPL oblique photo T6-10R looking north.
Published: 01 May 1985
Figure 6 —Mudstone and sandstone of Upper Cretaceous Tent Island (KTI) and lower Tertiary Moose Channel (TMC) Formations including part of Laramide foredeep on northwest flank of Cache Creek uplift in vicinity of Big Fish River (BFR). Northwesternmost Mackenzie Delta and Mackenzie Bay (MB
Image
—Structural cross section BB′ across the southeastern part of the Beaufort-Mackenzie basin (based on the interpretation of reflection seismic data). AK = Akpak sequence, MB = Mackenzie Bay sequence, KG = Kugmallit sequence, RI = Richards sequence, RND = Reindeer supersequence, FR = Fish River sequence, P = Paleozoic and older. Location shown on Figure 8.
Published: 01 June 1992
Figure 11 —Structural cross section BB′ across the southeastern part of the Beaufort-Mackenzie basin (based on the interpretation of reflection seismic data). AK = Akpak sequence, MB = Mackenzie Bay sequence, KG = Kugmallit sequence, RI = Richards sequence, RND = Reindeer supersequence, FR = Fish
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Temperature cross sections. See Figure 3 for the locations of the cross sections. The numbers on top of individual cross sections are well index numbers. Stratigraphic contacts are shown by colored lines. Contours are generated using the Matlab® linear extrapolation algorithm. WBTF = west Beaufort thrust front; BMTL = Beaufort-Mackenzie tectonic lineament; M. Bay = Mackenzie Bay; U. Cret. = Upper Cretaceous; L. Cret. = Lower Cretaceous; L. Cret.-J = Lower Cretaceous–Jurassic undifferentiated; uK = Upper Cretaceous; L. K = Lower Cretaceous; Mz = Mesozoic.
Published: 01 December 2008
= west Beaufort thrust front; BMTL = Beaufort-Mackenzie tectonic lineament; M. Bay = Mackenzie Bay; U. Cret. = Upper Cretaceous; L. Cret. = Lower Cretaceous; L. Cret.-J = Lower Cretaceous–Jurassic undifferentiated; uK = Upper Cretaceous; L. K = Lower Cretaceous; Mz = Mesozoic.
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Charts of hypothetical Tertiary petroleum systems. In system I, the Paleocene part of the Fish River Group is considered to be a source rock, and in system II, coaly beds at the base of the Taglu formation are considered to be source rocks. FR = Fish River; Rich = Richards; Kug = Kugmallit; M-Bay = MacKenzie Bay, and IK = Iperk.
Published: 01 February 2008
= Kugmallit; M-Bay = MacKenzie Bay, and IK = Iperk.
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—General geology of Beaufort-Mackenzie basin, Amauligak area. A, B, and C = unconformities inside Iperk sequence, DHIs = direct hydrocarbon indicators, IMU = intra-Miocene unconformity, TK = top of Kugmallit unconformity, circle cut by horizontal line = source rocks, stippled areas = sandstones and reservoir rocks. Oil, gas, and source rock symbols emphasize petroleum geology of area. Richards sequence is considered source of Amauligak hydrocarbons, but basinward, Mackenzie Bay shales and shale intervals in Kugmallit are also mature.
Published: 01 January 1990
= sandstones and reservoir rocks. Oil, gas, and source rock symbols emphasize petroleum geology of area. Richards sequence is considered source of Amauligak hydrocarbons, but basinward, Mackenzie Bay shales and shale intervals in Kugmallit are also mature.
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(a) Study area location map showing the general structural features (fault pattern is based on Lane and Dietrich, 1996). ELFZ = Eskimo Lakes fault zone; TFZ = Taglu fault zone; TAFZ = Tarsiut-Amauligak fault zone; WBTF = west Beaufort thrust front; BMTL = Beaufort-Mackenzie tectonic lineament. The black dashed line indicates the location of panel b. Panel b is a geological cross section (modified from Dixon et al., 1985). Fish R. = Fish River; Mackenzie B. = Mackenzie Bay; Pz = Paleozoic; uK = Upper Cretaceous; lK-J = Lower Cretaceous–Jurassic undifferentiated; SL = sea level. See panel a for the section location. The BMB is shown by the red box in the index map.
Published: 01 December 2008
lineament. The black dashed line indicates the location of panel b. Panel b is a geological cross section (modified from Dixon et al., 1985 ). Fish R. = Fish River; Mackenzie B. = Mackenzie Bay; Pz = Paleozoic; uK = Upper Cretaceous; lK-J = Lower Cretaceous–Jurassic undifferentiated; SL = sea level. See
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Strontium isotope (87Sr/86Sr) age estimates for calcareous benthic foraminifera and micritic limestone in Miocene and Pliocene sequences of the Beaufort–Mackenzie Basin. Age estimates of 5.4 to 16.7 Ma in the Mackenzie Bay and Akpak sequences conform closely to previous biostratigraphic age determinations. Strontium values from the K-59 limestone vary widely and may have been affected by sediment pore water. Strontium age estimates for the Iperk Sequence range from 0 to 2.09 Ma, which is younger than age estimates of 2.5 to ∼3.5 Ma based on benthic foraminifera.
Published: 01 February 2001
Fig. 15. Strontium isotope ( 87 Sr/ 86 Sr) age estimates for calcareous benthic foraminifera and micritic limestone in Miocene and Pliocene sequences of the Beaufort–Mackenzie Basin. Age estimates of 5.4 to 16.7 Ma in the Mackenzie Bay and Akpak sequences conform closely to previous
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—Interpreted and uninterpreted, 100-km-long, marine seismic reflection profile across the central Beaufort-Mackenzie basin (location on Figure 2). Upper Miocene (uM) and middle Eocene (mE) unconformities are prominent seismic sequence boundaries separating major tectonostratigraphic sequences. Slope clinoforms are apparent in the Iperk, Akpak, Mackenzie Bay, and Kugmallit sequences. The Taglu, Aklak, and older sequences underlie the middle Eocene unconformity. Normal faults in the Tarsiut-Amauligak fault zone offset middle Tertiary strata and detach within lower Tertiary or Upper Cretaceous strata. The base of the Upper Cretaceous–Tertiary basin-fill (B) is interpreted to occur between 6.5 and 8.5 s (depths of 12–16 km).
Published: 01 June 1992
sequences. Slope clinoforms are apparent in the Iperk, Akpak, Mackenzie Bay, and Kugmallit sequences. The Taglu, Aklak, and older sequences underlie the middle Eocene unconformity. Normal faults in the Tarsiut-Amauligak fault zone offset middle Tertiary strata and detach within lower Tertiary or Upper