1-20 OF 42 RESULTS FOR

Burro Negro Fault

Results shown limited to content with bounding coordinates.
Follow your search
Access your saved searches in your account

Would you like to receive an alert when new items match your search?
Close Modal
Sort by
Journal Article
Journal: AAPG Bulletin
Published: 01 April 2006
AAPG Bulletin (2006) 90 (4): 479–504.
...Alejandro Escalona; Paul Mann Abstract The northeastern Maracaibo Basin in western Venezuela was deformed by Paleogene thrusting and an associated tear fault (Burro Negro right-lateral strike-slip fault zone), related to Paleogene oblique collision between the Caribbean and South American plates...
FIGURES | View All (13)
Image
(A) Location map of the detailed study area of the northeastern Maracaibo Basin. (B) Surface geological map of the northeastern Maracaibo Basin corresponding to the boxed area shown in (A). (C) North-south transect 1 showing subvertical Burro Negro fault zone. Note that the Oligocene–Miocene subbasin is folded north of the Burro Negro fault, but to the south of the fault zone, the Eocene and a thin Miocene clastic wedge are unfolded and exhibit a uniform southward dip. (D) North–south transect 3 is similar to transect 1 in (C). (E) East–west transect 2 intersects the subvertical Burro Negro strike-slip fault zone. To the east of the Burro Negro fault zone, an Oligocene–Miocene subbasin appears to have formed along a west-dipping normal fault.
Published: 01 April 2006
Figure 10 (A) Location map of the detailed study area of the northeastern Maracaibo Basin. (B) Surface geological map of the northeastern Maracaibo Basin corresponding to the boxed area shown in (A). (C) North-south transect 1 showing subvertical Burro Negro fault zone. Note that the Oligocene
Image
(A) Radar image and regional seismic time slice at 3400 ms two-way traveltime in the Maracaibo Basin area. Main faults include Boconó, Valera, Burro Negro, Tigre, Icotea, and Pueblo Viejo. Other tectonic features indicated are the Icotea and Pueblo Viejo subbasins formed in the Eocene Maracaibo shelf. (B) Map modified from Mathieu (1989) documenting the Burro Negro fault as a right-lateral strike-slip fault with associated en echelon folds. (C) Cross section interpretation based on outcrop mapping by Mathieu (1989) shows the subvertical dip of the Burro Negro strike-slip fault zone.
Published: 01 April 2006
Figure 9 (A) Radar image and regional seismic time slice at 3400 ms two-way traveltime in the Maracaibo Basin area. Main faults include Boconó, Valera, Burro Negro, Tigre, Icotea, and Pueblo Viejo. Other tectonic features indicated are the Icotea and Pueblo Viejo subbasins formed in the Eocene
Image
Fence diagram showing the structural and stratigraphic architecture of the central and eastern part of the Maracaibo Basin and location of main faults in the study area. (1) Sub-Oligocene rocks are folded east of the Burro Negro tear fault (A, B, and D); (2) asymmetric wedge of Eocene clastic rocks pinches out in the central part of present-day Lake Maracaibo (A and B); (3) Eocene clastic section thickens adjacent to the Burro Negro fault zone (A, B, and C); and (4) the middle and upper Eocene clastic wedge is confined to the eastern part of the basin, in the area bounded by the Burro Negro and Pueblo Viejo faults. The Pueblo Viejo subbasin exhibits a very thick (>2500 m; >8200 ft) Eocene clastic section.
Published: 01 April 2006
Figure 6 Fence diagram showing the structural and stratigraphic architecture of the central and eastern part of the Maracaibo Basin and location of main faults in the study area. (1) Sub-Oligocene rocks are folded east of the Burro Negro tear fault (A, B, and D); (2) asymmetric wedge of Eocene
Image
Surface geologic map of the Maracaibo Basin region (modified from Borges, 1984) composed with seismic time slice at two-way travel time of 3.4 s in the central basin area. The present-day topographic and geological configuration of the Maracaibo Basin is controlled by uplift of the Mérida Andes and Sierra de Perijá. Interpreted regional seismic time slice at 3.4 s two-way traveltime shows the main structural styles in the Eocene, Paleocene, Cretaceous, and sub-Cretaceous stratigraphic levels (modified from Castillo, 2001). All sequences are dipping toward the south or southeast. An asymmetric, Eocene pull-apart basin formed along the Eocene Icotea left-lateral fault. The Burro Negro fault bounds the present-day Maracaibo Basin to the northeast. The Lara nappes are located east and northeast of the Burro Negro fault. Color lines represent the location of regional 2-D seismic transects that were also used.
Published: 01 April 2006
. An asymmetric, Eocene pull-apart basin formed along the Eocene Icotea left-lateral fault. The Burro Negro fault bounds the present-day Maracaibo Basin to the northeast. The Lara nappes are located east and northeast of the Burro Negro fault. Color lines represent the location of regional 2-D seismic transects
Image
Comparison of similar tear faults of different ages along the Venezuelan margin. (A) Interpreted seismic line in the Maturin subbasin across the Urica tear fault and separating a stable platform to the west from a deformed deep-water basin and diapirs to the east. Main phase of tear fault movement is Miocene (modified from Munro and Smith, 1984). (B) Interpreted seismic line in the Maturin subbasin across the Urica tear fault showing thin-skinned deformation (modified by Roure et al., 1994). (C) Interpreted transect 1 across the northern part of the Burro Negro fault, Maracaibo Basin, from this study. The Burro Negro lateral ramp fault is a thick-skinned tear fault that separates a stable platform to the west from a deformed deep-water basin and diapirs to the east. The main phase of shortening and about 150 km (93 mi) of right-lateral displacement along the Burro Negro tear fault is Eocene in age.
Published: 01 April 2006
fault movement is Miocene (modified from Munro and Smith, 1984 ). (B) Interpreted seismic line in the Maturin subbasin across the Urica tear fault showing thin-skinned deformation (modified by Roure et al., 1994 ). (C) Interpreted transect 1 across the northern part of the Burro Negro fault, Maracaibo
Image
Examples of Miocene–Holocene hydrocarbon reservoirs in the Maracaibo Basin. These reservoirs are located mainly in the north and northeastern areas of the Maracaibo Basin. The most prolific reservoirs are located along the northeastern coastline of the present-day Lake Maracaibo (Bolivar Coast) and along the trace of the Burro Negro fault zone. The inset map in the upper right corner (modified from PDVSA pamphlets, 1995 and 1996, unpublished data) provides the location of the sections.
Published: 01 April 2006
(Bolivar Coast) and along the trace of the Burro Negro fault zone. The inset map in the upper right corner (modified from PDVSA pamphlets, 1995 and 1996, unpublished data) provides the location of the sections.
Image
Isopach map of Eocene clastic sedimentary rocks in the Maracaibo and Barinas basins (modified from Zambrano et al., 1971; González de Juana et al., 1980). Major faults that were active in the Eocene are shown. The main depocenters in the Maracaibo Basin are located along the Icotea, Pueblo Viejo, and Burro Negro fault zones. Points A and B represent the southwestern edge of the Eocene foreland basin that was offset less than 100 km (62 mi) by late Miocene–Holocene right-lateral strike-slip motion along the Boconó fault zone.
Published: 01 April 2006
, Pueblo Viejo, and Burro Negro fault zones. Points A and B represent the southwestern edge of the Eocene foreland basin that was offset less than 100 km (62 mi) by late Miocene–Holocene right-lateral strike-slip motion along the Boconó fault zone.
Image
(A) Interpreted east-west seismic line in the Maracaibo Basin. The section shows the main structural and stratigraphic features of the Maracaibo Basin and its petroleum systems (see Figure 3 for location). Migration paths from source to reservoir are localized along major faults in the basin (e.g., Icotea fault, Pueblo Viejo, and A, B, and E faults). Hydrocarbon reservoirs are concentrated in structural highs beneath the Eocene unconformity and in the Miocene along the north and eastern flanks of the Maracaibo syncline. (B) Interpreted north-south seismic line in the Maracaibo Basin (see Figure 3 for location). Hydrocarbon reservoirs in the Miocene are concentrated in the updip part of the Miocene clastic wedge. Eocene turbidites provide good exploration targets north of the Burro Negro fault.
Published: 01 April 2006
(see Figure 3 for location). Hydrocarbon reservoirs in the Miocene are concentrated in the updip part of the Miocene clastic wedge. Eocene turbidites provide good exploration targets north of the Burro Negro fault.
Image
Surface geologic map of the Maracaibo Basin region (modified from Borges, 1984) combined with a seismic time slice from a merged 3-D seismic data set at 1 s two-way traveltime (TWT) beneath the floor of Lake Maracaibo. Colors for outcrops and subcrops seen on the 3-D seismic time slice indicate the age of rocks and are shown in the figure legend. The present-day topographic and geologic configuration of the Maracaibo Basin is controlled by uplift of the Mérida and Sierra de Perijá mountain ranges and by formation of the Miocene–Holocene Maracaibo syncline with a roughly north-south–trending axial trace. Global positioning system velocity vectors from Pérez et al. (2001) and Trenkamp et al. (2002) indicate direction and relative rate of displacement of the Maracaibo block to the north-northeast relative to the stable South America plate to the east of the basin. North-northeast–striking, pre-Oligocene faults characterize the subsurface of central Maracaibo Basin. The Burro Negro fault bounds the present Maracaibo Basin along its northeastern boundary.
Published: 01 April 2006
–striking, pre-Oligocene faults characterize the subsurface of central Maracaibo Basin. The Burro Negro fault bounds the present Maracaibo Basin along its northeastern boundary.
Image
(A) Location of the western Venezuela and Maracaibo Basin in the northern part of South America. Arrows indicate GPS-based plate vectors relative to a fixed South American plate from Pérez et al. (2001), Weber et al. (2001), and Trenkamp et al. (2002). Key to abbreviations: MA = Maracaibo block; PB = Panama–Baudo arc; BF = Boconó fault; OF = Oca fault; and SMBF = Santa Marta–Bucaramanga fault. (B) Major faults and folds affecting the Maracaibo Basin and northwestern Venezuela (surface structures shown as solid lines, subsurface faults shown as dotted lines). The Boconó, Oca, and Santa Marta faults define the triangular-shaped Maracaibo block, which GPS data show is being transported to the north and northeast. Abbreviations for faults and folds: ACC = Aricuasa–Cuibas–Cogollo; AF = Ancon fault; ALF = Alturitas fault; AVF = Avispa fault; BNFZ = Burro Negro fault zone; CF = Carache fault; CEF = Cerrajón fault; ILF = Icotea–Lama fault; MF = Mene Grande fault; PV = Pueblo Viejo fault; RAF = Rosario–Alturitas fault; UF = Urdaneta fault; VLE = VLE fault; TF = Tigre fault; and VF = Valera fault. (C) Location of study area (red box); red outline shows larger 3-D seismic study area discussed by Mann et al. (2006). Red lines are regional 2-D seismic lines discussed by Mann et al. (2006). Wells used in the south lake study area are shown.
Published: 01 April 2006
, and Santa Marta faults define the triangular-shaped Maracaibo block, which GPS data show is being transported to the north and northeast. Abbreviations for faults and folds: ACC = Aricuasa–Cuibas–Cogollo; AF = Ancon fault; ALF = Alturitas fault; AVF = Avispa fault; BNFZ = Burro Negro fault zone; CF
Image
Paleogeographic maps of the Maracaibo Basin (modified from Lugo, 1991; Parnaud et al., 1995b). (A) Late Cretaceous passive margin. (B) Late Paleocene early thrusting, foreland basin and early formation of the Burro Negro tear fault along the former shelf edge. (C) Middle Eocene thrusting and prolongation of the Burro Negro tear fault along the former shelf edge. (D) Oligocene uplift and erosion following thrusting.
Published: 01 April 2006
Figure 11 Paleogeographic maps of the Maracaibo Basin (modified from Lugo, 1991 ; Parnaud et al., 1995b ). (A) Late Cretaceous passive margin. (B) Late Paleocene early thrusting, foreland basin and early formation of the Burro Negro tear fault along the former shelf edge. (C) Middle Eocene
Series: AAPG Memoir
Published: 01 January 2021
DOI: 10.1306/13692242M1233845
EISBN: 9780891814283
... along northwest–southeast right-lateral transfer-fault systems of Barquisimeto, Burro Negro, Guárico, Margarita, Urica, and Tobago to name the most important. This succession of tectonic events had implications for basin development north and south of the suture, on the autochthonous side...
FIGURES | View All (46)
Journal Article
Journal: AAPG Bulletin
Published: 01 April 2006
AAPG Bulletin (2006) 90 (4): 657–678.
... (Bolivar Coast) and along the trace of the Burro Negro fault zone. The inset map in the upper right corner (modified from PDVSA pamphlets, 1995 and 1996, unpublished data) provides the location of the sections. ...
FIGURES | View All (12)
Image
(A) Topographic and bathymetric map showing six main tectonic belts observed in the northern margin of South America: 1 = Venezuelan basin; 2 = Aves–Leeward Antilles ridge; 3 = Grenada–Bonaire–Falcon basins; 4 = Lesser Antilles–Cordillera de la Costa; 5 = Tobago–Carupano basins; 6 = Barbados accretionary basin, Eastern Venezuela Basin–Maracaibo Basin. Tear faults are denoted by letters: A = Burro Negro tear fault; B, C, and D = Cordillera de la Costa tear faults; E = Urica tear fault; F = San Francisco tear fault; G = El Soldado tear fault; and H = Los Bajos tear fault. (B) Satellite gravity map from Sandwell and Smith (1997) showing the six tectonic belts and depth to basement contours in kilometers.
Published: 01 April 2006
= Barbados accretionary basin, Eastern Venezuela Basin–Maracaibo Basin. Tear faults are denoted by letters: A = Burro Negro tear fault; B, C, and D = Cordillera de la Costa tear faults; E = Urica tear fault; F = San Francisco tear fault; G = El Soldado tear fault; and H = Los Bajos tear fault. (B) Satellite
Journal Article
Journal: AAPG Bulletin
Published: 01 April 2006
AAPG Bulletin (2006) 90 (4): 581–623.
... fluvial- and tide-dominated deltaic complex with a south-southwest alignment, reflecting a main depositional direction toward the northeast, where marine influence increased. The shelf edge was located along the trace of the Burro Negro fault, north of which deep-water sedimentation occurred ( Escalona...
FIGURES | View All (31)
Journal Article
Journal: AAPG Bulletin
Published: 01 August 1935
AAPG Bulletin (1935) 19 (8): 1205–1218.
..., thus proving the average shallowness of the basin in rather widely separated localities. At present, three wells are being drilled for research purposes: at Paso Ulestie in the Department of Rio Negro; at Cañada de los Burros in the Department of Cerro Largo; and at La Paloma in the Department...
FIGURES
Journal Article
Journal: Geology
Published: 20 October 2022
Geology (2022) 50 (12): 1421–1426.
... analysis. Note that the apparent RSCM thermal anomaly is bounded by reverse/thrust faults. Insets show inverse thermal history models of temperature versus time (in Ma) for Alder Peak, Salmon Creek, Lottie Potrero, and San Simeon. Salmon Creek model was computed by integrating the data set from Steely...
FIGURES
Journal Article
Journal: AAPG Bulletin
Published: 01 April 2006
AAPG Bulletin (2006) 90 (4): 445–477.
...–striking, pre-Oligocene faults characterize the subsurface of central Maracaibo Basin. The Burro Negro fault bounds the present Maracaibo Basin along its northeastern boundary. ...
FIGURES | View All (17)
Journal Article
Journal: AAPG Bulletin
Published: 01 April 2006
AAPG Bulletin (2006) 90 (4): 505–528.
... , 176 p. Escalona , A. , and P. Mann , 2006a , An overview of the petroleum system of Maracaibo Basin : AAPG Bulletin , v. 90 , p. 657 – 678 . Escalona , A. , and P. Mann , 2006b , Tectonic controls of the right-lateral Burro Negro tear fault on Paleogene structure...
FIGURES | View All (15)