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Locker Shale

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Journal Article
Published: 01 July 2003
Journal of Micropalaeontology (2003) 22 (1): 1–27.
... younger Cunaloo Formation, by Gorter (1994 ). The Lower to basal Middle Triassic marine succession is referred to as the Locker Shale (Parry, in Jones, 1967 ), although the lithology varies from shale, through siltstone, to fine sandstone in some wells. Fig. 2. Stratigraphy of some Lower...
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First thumbnail for: Early to lowermost Middle Triassic Foraminifera fr...
Second thumbnail for: Early to lowermost Middle Triassic Foraminifera fr...
Third thumbnail for: Early to lowermost Middle Triassic Foraminifera fr...
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Locker Shale sequence in Hampton-1 well and Lawley-1 well, showing sample locations, palynological age determinations, foraminiferal assemblages and interpreted depositional environments.
Published: 01 July 2003
Fig. 3. Locker Shale sequence in Hampton-1 well and Lawley-1 well, showing sample locations, palynological age determinations, foraminiferal assemblages and interpreted depositional environments.
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Distribution chart of foraminifera in the Locker Shale, Hampton-1 well
Published: 01 July 2003
Fig. 4. Distribution chart of foraminifera in the Locker Shale, Hampton-1 well
Journal Article
Published: 03 April 2023
Petroleum Geoscience (2023) 29 (2): petgeo2022-023.
... as well as the Early Triassic Locker Shale. Biomarker analyses were conducted on petroleum samples from these basins to understand the nature of the petroleum systems. Many of the analysed petroleum samples contain carotenoids (okenane, chlorobactane and isorenieratane) derived from photosynthetic sulfur...
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First thumbnail for: The potential extent of Early Triassic Kockatea <s...
Second thumbnail for: The potential extent of Early Triassic Kockatea <s...
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Journal Article
Published: 14 November 2018
Journal of the Geological Society (2019) 176 (1): 115–128.
... pattern within the Lewis Trough. This study indicates that the Lewis Trough formed during the Early Jurassic, a period typically associated with high rates of extension and not during the Late Triassic Fitzroy Compression Event. This study also highlights the importance of the Locker Shale in partitioning...
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First thumbnail for: Origin of basin-scale syn-extensional synclines on...
Second thumbnail for: Origin of basin-scale syn-extensional synclines on...
Third thumbnail for: Origin of basin-scale syn-extensional synclines on...
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Seismic section (as TWT) showing Jurassic-aged faults detaching onto or within the Locker Shale interval. A possible hard link with Permian-aged faults is also shown.
Published: 14 November 2018
Fig. 12. Seismic section (as TWT) showing Jurassic-aged faults detaching onto or within the Locker Shale interval. A possible hard link with Permian-aged faults is also shown.
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Schematic evolution of crustal scale extensional fault-related fold in the inner rift system of the North West Shelf from the Late Triassic to present-day. (A) Deposition of Locker Shale and Mungaroo Formation. (B) Late Triassic to Middle Jurassic extension rejuvenated inherited structure and formed crustal-scale monocline at the tip of the basement fault and a ramp syncline in the hanging wall. (C) Continued extension in late mid-Jurassic breached the monocline and formed a rollover anticline in the hanging wall. (D) Middle Miocene reactivation along the basin boundary faults.
Published: 01 July 2024
Figure 17. Schematic evolution of crustal scale extensional fault-related fold in the inner rift system of the North West Shelf from the Late Triassic to present-day. (A) Deposition of Locker Shale and Mungaroo Formation. (B) Late Triassic to Middle Jurassic extension rejuvenated inherited
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Vitrinite reflectance modeled for the Jupiter-1 well on the Australian northwest margin as a function of upper-crustal (UC) thickness at the onset of rifting (for location, see Figure 1). The possible thin source-rock interval might correspond to the Locker Shale, which is at approximately that depth. At UC thickness of 10 km, the full thickness of the source rock is within the dry-gas maturity window. An increase of the modeled UC thickness to 18 km leads to higher radiogenic heat production in the basement, and the source-rock interval falls completely outside the dry-gas maturity window.
Published: 01 January 2016
Figure 2. Vitrinite reflectance modeled for the Jupiter-1 well on the Australian northwest margin as a function of upper-crustal (UC) thickness at the onset of rifting (for location, see Figure 1 ). The possible thin source-rock interval might correspond to the Locker Shale, which
Image
—Southeastern part of seismic line 5 and well Arabella 1 showing the Paleozoic–Mesozoic boundary (SB 1). (A) Uninterpreted seismic line and Arabella 1 with sequence boundaries; (B) interpreted seismic line. Above SB 1, sequence 1 shows a basal transgressive sand, the marine Locker Shale, and the regressive Mungaroo Formation. Sequence 1 is truncated by Callovian breakup unconformity SB 5. On top of SB 5, the basal Mardie/Birdrong sandstone exhibits continuous reflections. For a detailed interpretation of Arabella 1, see Figure 10. Numbers in circles refer to seismic sequences.
Published: 11 October 1997
Figure 9 —Southeastern part of seismic line 5 and well Arabella 1 showing the Paleozoic–Mesozoic boundary (SB 1). (A) Uninterpreted seismic line and Arabella 1 with sequence boundaries; (B) interpreted seismic line. Above SB 1, sequence 1 shows a basal transgressive sand, the marine Locker Shale
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F1 fault system and surface characteristics of the Enderby Terrace. (A) F1 fault map at the J20.1 TS stratigraphic level. The basement fault at depth is shown in gray; (B) F1 strike-projection of fault throws showing displacement maxima at depth. F1a is vertically linked to segments in the cover sequence via vertical branch lines (VBLs). The main fault plane and the splay faults are linked via vertical branch lines; (C) F1 fault dip display showing steep dips at the top of the stratigraphic section (30°–60°), shallow dips of 0°–30° at intermediate depth, and steep dips in the deeper seismic sections (30°–60°). The shallow dip domain corresponds to the weak Locker Shale Formation (TR10.0 SB-TR17.0 SB); (D) F1 strike variation showing the strike varies between 150° and 270° with divergent splays deviating from the main fault plane. F1f, F1g, and F1h show clockwise rotation whereas F1c, F1d, F1e show anti-clockwise rotation. HBL—horizontal branch line; V = H—vertical scale = horizontal scale.
Published: 28 January 2021
seismic sections (30°–60°). The shallow dip domain corresponds to the weak Locker Shale Formation (TR10.0 SB-TR17.0 SB); (D) F1 strike variation showing the strike varies between 150° and 270° with divergent splays deviating from the main fault plane. F1f, F1g, and F1h show clockwise rotation whereas F1c
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F2, F3, and F4 fault systems and the fault surface characteristics of the Enderby Terrace. (A) Map-view of F2–F4 fault systems at the J20.1 TS stratigraphic level; (B) strike-projection of fault throw showing displacement maxima in the lower part of F3a and F4a fault surfaces. Note that F3a and F2-1a show displacement increase toward the branch lines with F1; (C) F2, F3, and F4 fault dips show low-dip domains (15°–30°) at intermediate depths corresponding to the Triassic Locker Shale Formation (TR10.0 SB–TR17.0 SB) and high-dip domains (30°–60°) on the upper and lower parts of the fault surfaces; (D) F2, F3, and F4 fault strikes showing the strike varies between 180° and 280° with divergent splays deviating from the main fault plane. All the divergent splays show anti-clockwise rotation from the main fault planes and are probably largely inactive after the linkage of the main fault planes of F3 and F4. VBL—vertical branch line; HBL—horizontal branch line; V = H—vertical scale = horizontal scale.
Published: 28 January 2021
that F3a and F2-1a show displacement increase toward the branch lines with F1; (C) F2, F3, and F4 fault dips show low-dip domains (15°–30°) at intermediate depths corresponding to the Triassic Locker Shale Formation (TR10.0 SB–TR17.0 SB) and high-dip domains (30°–60°) on the upper and lower parts
Series: Geological Society, London, Special Publications
Published: 09 May 2020
DOI: 10.1144/SP476-2018-180
EISBN: 9781786203892
.... Simplified tectono-stratigraphic chart of the Dampier Sub-basin. Geological timescale and sequence boundaries are adapted from Marshall & Lang (2013) . Tectonic events are modified from Longley et al. (2002) , Jablonski & Saitta (2004) and Smith (1999) . The Triassic Locker Shale...
Journal Article
Journal: The Leading Edge
Published: 01 September 2012
The Leading Edge (2012) 31 (9): 1050–1058.
... of Western Australia in water depths of 200–300 m ( Figure 1a ). The reservoir system consists of Triassic fluvial sandstones overlain unconformably by shales of the Early Cretaceous Barrow Group. The Triassic section divides naturally into a lower fine-grained sequence, the marine Locker Shale, and an upper...
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First thumbnail for: Seismic technology supporting reserves determinati...
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Journal Article
Journal: AAPG Bulletin
Published: 15 April 2020
AAPG Bulletin (2020) 104 (4): 913–938.
... caused by thermal immaturity of the Locker Shale source rock, an ineffective migration path from deeper source rocks and uplift and tilting associated with the Valanginian unconformity (K20.0 subbasin) (Australian Occidental Pty. Ltd., unpublished results). The SIF itself is interpreted...
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First thumbnail for: Extensional fault–related folding of the North Wes...
Second thumbnail for: Extensional fault–related folding of the North Wes...
Third thumbnail for: Extensional fault–related folding of the North Wes...
Journal Article
Journal: GSA Bulletin
Published: 28 January 2021
GSA Bulletin (2021) 133 (9-10): 2051–2078.
... seismic sections (30°–60°). The shallow dip domain corresponds to the weak Locker Shale Formation (TR10.0 SB-TR17.0 SB); (D) F1 strike variation showing the strike varies between 150° and 270° with divergent splays deviating from the main fault plane. F1f, F1g, and F1h show clockwise rotation whereas F1c...
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First thumbnail for: Three-dimensional geometry and growth of a basemen...
Second thumbnail for: Three-dimensional geometry and growth of a basemen...
Third thumbnail for: Three-dimensional geometry and growth of a basemen...
Journal Article
Journal: The Leading Edge
Published: 01 January 2016
The Leading Edge (2016) 35 (1): 99–104.
...Figure 2. Vitrinite reflectance modeled for the Jupiter-1 well on the Australian northwest margin as a function of upper-crustal (UC) thickness at the onset of rifting (for location, see Figure 1 ). The possible thin source-rock interval might correspond to the Locker Shale, which...
FIGURES
First thumbnail for: A new dawn for Australian ocean-bottom seismograph...
Second thumbnail for: A new dawn for Australian ocean-bottom seismograph...
Third thumbnail for: A new dawn for Australian ocean-bottom seismograph...
Journal Article
Journal: The Leading Edge
Published: 01 January 2002
The Leading Edge (2002) 21 (1): 18–27.
... the Locker Shale in the Mid-Late Triassic. The average gross thickness of reservoirs units is 30–300 m. Four prestack time-migrated (PSTM) 2-D lines, picked from a 3-D marine seismic survey, were used for this study. Data were processed to maintain true relative amplitudes and to increase the signal...
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First thumbnail for: AVO hodograms and polarization attributes
Second thumbnail for: AVO hodograms and polarization attributes
Third thumbnail for: AVO hodograms and polarization attributes
Journal Article
Journal: GeoArabia
Publisher: Gulf Petrolink
Published: 01 January 2014
GeoArabia (2014) 19 (1): 117–140.
...Mohammad Alqudah; Mohammad Ali Hussein; Olaf G. Podlaha; Sander van den Boorn; Sadat Kolonic; Jörg Mutterlose ABSTRACT Cretaceous and Paleogene marls, rich in total organic carbon, are widespread throughout Jordan and adjoining areas. Based on planktonic foraminifera these oil shales have been...
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First thumbnail for: Calcareous nannofossil biostratigraphy of Eocene o...
Second thumbnail for: Calcareous nannofossil biostratigraphy of Eocene o...
Third thumbnail for: Calcareous nannofossil biostratigraphy of Eocene o...
Journal Article
Journal: AAPG Bulletin
Published: 01 March 1988
AAPG Bulletin (1988) 72 (3): 318–346.
... ; Buffler et al, 1984 ). Some previous works have specifically addressed paleoslopes and internal architecture of these margins ( van Siclen, 1958 ; Hendricks and Wilson, 1967 ; McNamee, 1969 ; J. L. Wilson, 1975 ; Locker and Buffler, 1983 ; Selvius and Wilson, 1985 ). The present study emphasizes...
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First thumbnail for: Paleogeographic Evolution of Early Deep-Water Gulf...
Second thumbnail for: Paleogeographic Evolution of Early Deep-Water Gulf...
Third thumbnail for: Paleogeographic Evolution of Early Deep-Water Gulf...
Journal Article
Published: 03 April 2000
Canadian Journal of Earth Sciences (2000) 37 (4): 535–547.
..., North Pond, Dover, Locker’s Bay, and Cape Freels granites (Fig.  1 ; D’Lemos et al. 1997 ). The region was subsequently intruded by extensive late orogenic, “posttectonic” Devonian granite plutons including the Deadman’s Bay and Newport granites (Fig.  1 ; D’Lemos et al. 1995 ). The Gander Group...
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First thumbnail for: Granite petrogenesis in the Gander Zone, NE Newfou...
Second thumbnail for: Granite petrogenesis in the Gander Zone, NE Newfou...
Third thumbnail for: Granite petrogenesis in the Gander Zone, NE Newfou...