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Mouydir Basin

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Journal Article
Published: 01 May 2006
Geological Magazine (2006) 143 (3): 269–299.
... of a Devonian basin and ridge system. This area includes a series of intracratonic basins along the northern margin of the West African Craton which consists (from W to E) of the Reggane Basin, Azel Matti Ridge, Ahnet Basin, Foum Belrem Ridge and Mouydir Basin. The depositional and palaeogeographic...
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First thumbnail for: Sedimentary evolution of a Palaeozoic <span class=...
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(A) WSW-ENE geological cross section of the Mouydir Basin showing typical arch and basin architecture defined as a syncline-shaped basin with boundary secondary arches. (B) NW-SE seismic profiles of the Ahnet Basin defined as a complex shaped basin with intra-basin arches. The specific zonation of the terranes age with the arches-basins architecture is observed (see also Perron et al., 2018).
Published: 02 April 2021
Fig. 3 (A) WSW-ENE geological cross section of the Mouydir Basin showing typical arch and basin architecture defined as a syncline-shaped basin with boundary secondary arches. (B) NW-SE seismic profiles of the Ahnet Basin defined as a complex shaped basin with intra-basin arches. The specific
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Schematic cross-section from the Reggane into the Mouydir basin, flattened at the base of the uppermost Famennian Grès du Khenig, approximately along the transect of Figure 10. Solid lines – chronostratigraphic boundaries; broken line – lithostratigraphic boundary. Legend as in Figure 10.
Published: 01 May 2006
Figure 16. Schematic cross-section from the Reggane into the Mouydir basin, flattened at the base of the uppermost Famennian Grès du Khenig, approximately along the transect of Figure 10 . Solid lines – chronostratigraphic boundaries; broken line – lithostratigraphic boundary. Legend
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(A) Geological map of the Ahnet and the Mouydir Basins modified from Perron et al., (2018) showing the specific zonation of the terranes, the paleocurrents directions (from Beuf et al., 1971) and the evidence of sedimentary structures on arches (from Perron et al., 2018; Wendt et al., 2006). Terrane names and abbreviations: Tassendjanet (Tas), Tassendjanet nappe (Tas n.), Ahnet (Ah), In Ouzzal Granulitic Unit (IOGU), In Zaouatene (Za), In Teidini (It), Iskel (Isk), Tefedest (Te) and Egéré-Aleskod (Eg-Al). Shear zone and lineament names and abbreviations: west Ouzzal shear zone (WOSZ), east Ouzzal shear zone (EOSZ), 4°10’ shear zone and 4°50’ shear zone. B) Satellite images of the Paleozoic series in the Ahnet and Mouydir basin (Landsat 7 ETM + from USGS: https://earthexplorer.usgs.gov/).
Published: 02 April 2021
Fig. 2 (A) Geological map of the Ahnet and the Mouydir Basins modified from Perron et al. , (2018) showing the specific zonation of the terranes, the paleocurrents directions (from Beuf et al. , 1971 ) and the evidence of sedimentary structures on arches (from Perron et al. , 2018 ; Wendt
Journal Article
Journal: AAPG Bulletin
Published: 01 November 2003
AAPG Bulletin (2003) 87 (11): 1799–1822.
.... The modeling shows that thermal activation during the Permian–Triassic–Jurassic was most intense in the Timimoun basin and the northern part of the Ahnet and Mouydir basins, with a heat flow of about 70–80 mW/m 2 and a lithosphere thickness of 40–50 km. Activation was more moderate in the Sbaa subbasin...
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First thumbnail for: Burial history and thermal evolution of the southe...
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W–E transect through the northern Ahnet–northern Mouydir from the Reggane Basin (384) into the Mouydir Basin. Note extreme increase of Givetian thickness in the eastern Mouydir (376, 335). Continuous lines – biostratigraphic correlations; broken lines – lithostratigraphic correlations. For location of sections see Figure 2.
Published: 01 May 2006
Figure 10. W–E transect through the northern Ahnet–northern Mouydir from the Reggane Basin (384) into the Mouydir Basin. Note extreme increase of Givetian thickness in the eastern Mouydir (376, 335). Continuous lines – biostratigraphic correlations; broken lines – lithostratigraphic correlations
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W–E transect through the northern Ahnet–northern Mouydir from the Reggane Basin (384) into the Mouydir Basin. Note extreme increase of Givetian thickness in the eastern Mouydir (376, 335). Continuous lines – biostratigraphic correlations; broken lines – lithostratigraphic correlations. For location of sections see Figure 2.
Published: 01 May 2006
Figure 10. W–E transect through the northern Ahnet–northern Mouydir from the Reggane Basin (384) into the Mouydir Basin. Note extreme increase of Givetian thickness in the eastern Mouydir (376, 335). Continuous lines – biostratigraphic correlations; broken lines – lithostratigraphic correlations
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Comparison of total subsidence curves between numerical models and geological data extracted from the Mouydir Basin, Algeria (9: Well W21; Perron et al., 2018) and the Ahnet Basin, Algeria (5: well W1, Kracha, 2011). The Algerian wells are localized in Figure 2A. The curves are presented in Figure 1.
Published: 02 April 2021
Fig. 12 Comparison of total subsidence curves between numerical models and geological data extracted from the Mouydir Basin, Algeria (9: Well W21; Perron et al. , 2018 ) and the Ahnet Basin, Algeria (5: well W1, Kracha, 2011 ). The Algerian wells are localized in Figure 2A . The curves
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Compilation of total burial subsidence of intracratonic basins modified from literature showing periods of acceleration (ALRS: Acceleration of the Low Rate subsidence), deceleration (DLRS: Deceleration of the Low Rate Subsidence) and inversion (ILRS: Inversion of the Low Rate Subsidence) of the low rate subsidence. 1: New York, USA, well 7-6 (Adkinson, 1966 from Sleep et al., 1980); 2: Ohio, USA, well 6-6 (Adkinson, 1966 from Sleep et al., 1980); 3: Johnson County, USA, Illinois well (Sleep et al., 1980); 4: Michigan Basin well, USA (Sleep and Sloss, 1978); 5: Ahnet Basin, Algeria, well W1 (Kracha, 2011); 6: Ghadames/Berkine Basin, Algeria (Yahi, 1999); 7: Illizi Basin well, Algeria (Wells et al., 2018); 8: Mouydir Basin, Algeria Well W21 (Perron et al., 2018); 9: Tyumen SG-6 section, Urengoy region, Russia (Nikishin et al., 2002); 10: North Dakota, Williston Basin, USA, well 11 (Smith, 1967 from Fowler and Nisbet, 1985); 11: Williston Basin, Saskatchewan, USA, well 1 (Fowler and Nisbet, 1985); 12: Paris Basin, France, well CFX-1 (Brunet and Pichon, 1982); 13: Parnaíba Basin, Brazil, well 2-BAC (Tozer et al., 2017); 14: Northeast German Basin, Germany (Scheck and Bayer, 1999). The dashed line represents thermal seafloor subsidence from Xie and Heller (2009). For 7 (well W1, Ahnet Basin) and 19 (well W21, Mouydir Basin) see Figure 2 for localisation. Notice that this is a compilation of worldwide intracratonic basins, where different explanations from the literature (e.g.Xie and Heller, 2009; Allen and Armitage, 2011) can be invoked to capture the origin of their subsidence.
Published: 02 April 2021
, Algeria, well W1 ( Kracha, 2011 ); 6: Ghadames/Berkine Basin, Algeria ( Yahi, 1999 ); 7: Illizi Basin well, Algeria ( Wells et al. , 2018 ); 8: Mouydir Basin, Algeria Well W21 ( Perron et al. , 2018 ); 9: Tyumen SG-6 section, Urengoy region, Russia ( Nikishin et al. , 2002 ); 10: North Dakota
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Ternary classification of low rate intracratonic basins. The diagram relates typical tectono-stratigraphic basin architecture (flat syncline-shaped, syncline-shaped or complex-shaped basin) to internal and external forcing parameters. Example of plotted basins according to their architecture, geometry and subsidence history (see Fig. 12): 1: Ahnet Basin, North Africa (Perron et al., 2018); 2: Mouydir Basin, North Africa (Perron et al., 2018); 3: Tim Mersoï Basin, North Africa (Perron, 2019); 4: Tamesna Basin, North Africa (Lessard, 1961; Perron, 2019). Notice that here the “hot” geotherm (Fig. 4C) is by default if it is not specified. Basic local erosion/deposition processes are active in each model.
Published: 02 April 2021
to their architecture, geometry and subsidence history (see Fig. 12 ): 1: Ahnet Basin, North Africa ( Perron et al. , 2018 ); 2: Mouydir Basin, North Africa ( Perron et al. , 2018 ); 3: Tim Mersoï Basin, North Africa ( Perron, 2019 ); 4: Tamesna Basin, North Africa ( Lessard, 1961 ; Perron, 2019 ). Notice that here
Journal Article
Published: 02 April 2021
Bulletin de la Société Géologique de France (2021) 192 (1): 15.
...Fig. 3 (A) WSW-ENE geological cross section of the Mouydir Basin showing typical arch and basin architecture defined as a syncline-shaped basin with boundary secondary arches. (B) NW-SE seismic profiles of the Ahnet Basin defined as a complex shaped basin with intra-basin arches. The specific...
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Journal Article
Journal: AAPG Bulletin
Published: 11 October 1997
AAPG Bulletin (1997) 81 (10): 1679–1699.
... in the central and eastern parts of the Saharan platform and are investigated in detail. The Ahnet, Mouydir, Timimoun, Reggane, and other basins located in the southern and western parts of the platform are also studied. The modeling results, combined with geochemical data, are used in a synthesis...
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Series: Geological Society, London, Special Publications
Published: 01 January 2009
DOI: 10.1144/SP326.8
EISBN: 9781862395749
... maturation history may be unfavourable for the preservation of Infracambrian-sourced hydrocarbons in this area. Local development of Infracambrian source facies may also occur in the Reggane, Ahnet, Mouydir and Iullemeden basins, as indicated by black shales in wells MKRN-1 and MKRS-1 in the Ahnet Basin...
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Upper Silurian (Lower Ludlow) facies distribution of the Fegaguira Formation in Algeria and southern Tunisia (data compiled after Legrand 1962, 1969, 1985; Bonnefous 1963; Berry and Boucot 1973; Soua 2014). The map shows the Upper Silurian main sub-basins delimited by north–south, NW–SE and east–west structural palaeohighs. To the north of the Talemzane–Dahar High, the Upper Silurian Fegaguira facies of the Chotts Basin, which is the subject of this study and represent the eastwards extension of the Algerian Melrhir Basin, are represented by both calcareous-argillaceous and argillaceous-calcareous facies. To the south in the different basins (Ahnet, Mouydir, illizi and Berkine–Ghadames), the Upper Silurian deposits are dominantly represented by sandy facies recording a major progradation. This is well illustrated in the southern parts of the Ilizi and Berkine–Ghadames basins where these facies (Acacus Formation) are producing hydrocarbon. The red and green zones represent oil and gas fields in Algeria and Tunisia.
Published: 11 September 2023
and argillaceous-calcareous facies. To the south in the different basins (Ahnet, Mouydir, illizi and Berkine–Ghadames), the Upper Silurian deposits are dominantly represented by sandy facies recording a major progradation. This is well illustrated in the southern parts of the Ilizi and Berkine–Ghadames basins
Journal Article
Journal: AAPG Bulletin
Published: 01 August 1971
AAPG Bulletin (1971) 55 (8): 1295–1335.
... Tassilis Internes Group, Amguid and Mouydir * * According to BRP et al . (1964) . Table 17. Formations of Grès des Tassilis Internes Group, South Limb of Fort Polignac Basin * * According lo BRP et al . (19641) . BRP et al . (1964) also described sections mainly from...
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First thumbnail for: “Cambro-Ordovicien” Rocks of Al Jazaïr (Algeria)—a...
Second thumbnail for: “Cambro-Ordovicien” Rocks of Al Jazaïr (Algeria)—a...
Third thumbnail for: “Cambro-Ordovicien” Rocks of Al Jazaïr (Algeria)—a...
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A, location of the main Carboniferous Basins in Morocco, Algeria and Tunisia: 1, Central Massif; 2, Rehamna; 3, Djebilet; 4, Tafilalt; 5, Béchar; 6, Jerada; 7, Tindouf; 8, Reggane; 9, Ahnet; 10, Mouydir; 11, subsurface Carboniferous; AA = Anti-Atlas, ATF = Atlas Transform Fault, EM = Eastern Meseta, HA = High Atlas, MA = Middle Atlas, WM = Western Meseta; B, detail of the Variscides in Morocco, pale gray areas are Carboniferous outcrops, dark grey is the Azrou-Khenifra Basin; C, location of the Adarouch area (encased box) in the northern part of the Azrou-Khenifra Basin, see also arrow in B; D, photogeological map showing the location of the measured stratigraphic sections in the Carboniferous formations (modified from Weyant, 1985; Hoepffner et al., 2005; Simancas et al., 2005).
Published: 01 November 2011
F igure 1 A , location of the main Carboniferous Basins in Morocco, Algeria and Tunisia: 1 , Central Massif; 2 , Rehamna; 3 , Djebilet; 4 , Tafilalt; 5 , Béchar; 6 , Jerada; 7 , Tindouf; 8 , Reggane; 9 , Ahnet; 10 , Mouydir; 11 , subsurface Carboniferous; AA = Anti-Atlas, ATF = Atlas
Journal Article
Journal: AAPG Bulletin
Published: 01 December 1987
AAPG Bulletin (1987) 71 (12): 1445–1466.
... rocks was about 100°C in the early Tertiary, and wet gas in the northeastern and southwestern parts of the basin, where maximum temperature reached about 130°C. To the west, the Ahnet and Mouydir basins contain the same sequence of source rocks, but their temperature reached 130°-160°C in the Ahnet...
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Journal Article
Published: 01 November 2011
Journal of Paleontology (2011) 85 (6): 1105–1127.
...F igure 1 A , location of the main Carboniferous Basins in Morocco, Algeria and Tunisia: 1 , Central Massif; 2 , Rehamna; 3 , Djebilet; 4 , Tafilalt; 5 , Béchar; 6 , Jerada; 7 , Tindouf; 8 , Reggane; 9 , Ahnet; 10 , Mouydir; 11 , subsurface Carboniferous; AA = Anti-Atlas, ATF = Atlas...
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First thumbnail for: Potential Foraminiferal Markers for the Visean–Ser...
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Journal Article
Journal: AAPG Bulletin
Published: 01 December 1971
AAPG Bulletin (1971) 55 (12): 2225–2245.
..., and paleogeographic agents that controlled the detrital sedimentation. For this kind of fundamental study and to obtain a better knowledge of the oil reservoir characteristics and their lateral variations in the basins, the Sahara proved a very favorable area. The Algerian Sahara is between the meridians 6°W...
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First thumbnail for: Example of Cratonic Sedimentation: Lower Paleozoic...
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Journal Article
Published: 13 November 2013
Geological Magazine (2014) 151 (5): 885–898.
... . Hercynian compressional deformations of the Ahnet–Mouydir Basin, Algerian Saharan Platform: far-field stress effects of the Late Palaeozoic orogeny . Terra Nova 13 , 220 –6. Haq B. , Hardenbol J...
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First thumbnail for: Vertical movements along the northern border of th...
Second thumbnail for: Vertical movements along the northern border of th...
Third thumbnail for: Vertical movements along the northern border of th...