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Palo Seco

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Characteristic features of FA5, channel–levee deposits (O2, Palo Seco West). A) Measured section of FA5 channel–levee sands consisting of stacked interbedded and laminated Tc–Te facies at O2, Palo Seco East location. B) Overview of small adjacent channel ∼ 250 m away from the levee complex. C) Overview of measured section with stacked levees. D) Sandy channel–levee facies of interbedded wavy to rippled sandstone beds (Tc) with interbedded Td–Te mudstones. E) Climbing-ripple laminae. F) “Pinstripe” laminations and muds interpreted as distal overbank deposits ∼ 450 m away from measured section at A) channel–levee sands and C) levee. G) Bioturbated (possibly Palaeophycus) distal levee deposits characterized by “pinstripe” lamination of sand and mud couplet disrupted by bioturbation.
Published: 28 September 2020
Fig. 17.— Characteristic features of FA5, channel–levee deposits (O2, Palo Seco West). A) Measured section of FA5 channel–levee sands consisting of stacked interbedded and laminated Tc–Te facies at O2, Palo Seco East location. B) Overview of small adjacent channel ∼ 250 m away from the levee
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A–G) characteristic features of Palo Seco East slope channels. A) Measured section at O1, Western Palo Seco succession illustrating FA6, hybrid flows, at the base of the section capped by FA4, sandy slope channel facies with interbedded muds (FA3). B) Panoramic overview of stacked high-density sandy slope channel succession. C) Massive Ta slope channel sands. D) Subtle sheared flame structures between individual high-density flows. E) Convoluted to wavy-laminated sands (Tb-2) caps massive turbidite (Ta) sands. F) Carbonaceous-rich layer between structureless Ta sands. G) Carbonaceous-rich layer; note the occasional floating clasts. H) Channel fill dominated by Tb-2 facies, parallel-laminated sands and silts, found at locality O2 (Palo Seco East; see Figure 17B for locality).
Published: 28 September 2020
Fig. 16.— A–G) characteristic features of Palo Seco East slope channels. A) Measured section at O1, Western Palo Seco succession illustrating FA6, hybrid flows, at the base of the section capped by FA4, sandy slope channel facies with interbedded muds (FA3). B) Panoramic overview of stacked
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A) Western Palo Seco Bay succession showing small turbidite-filled channels. B) Very fine sandstones with rippled laminae and thin mudstone layers overlain by highly deformed load structures. C) Large silty flame structures penetrating far upwards into a thick bed of structureless, lower-fine-grained sandstone. D) Ripple-laminated thin-bedded sandstones overlain by a 3-m-thick structureless lower-fine sandstone bed, which contains mudstone clasts and shows deep basal erosion.
Published: 01 January 2016
Fig. 14.— A) Western Palo Seco Bay succession showing small turbidite-filled channels. B) Very fine sandstones with rippled laminae and thin mudstone layers overlain by highly deformed load structures. C) Large silty flame structures penetrating far upwards into a thick bed of structureless
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A) Western Palo Seco Bay submarine channels filled with turbidite beds. B) Panorama of channelized structureless lower-fine to upper-fine sandstone with occasional mudstone clasts. The individual sandstone beds are 1–3 m thick with associated thin beds of organic-rich, very-fine sandstone. C) Structureless sandstone beds with thin layers of organic-rich mudstone between. D) Structureless lower-fine sandstone beds with interbedded thin organic-rich siltstones. E) Thin beds of very fine sandstone with organic matter. F) Lower-fine sandstones contain large mudstone clasts, overlain by upper-fine sandstones with organic matter, and then eroded by medium sandstones with small cut-and-fill scours.
Published: 01 January 2016
Fig. 13.— A) Western Palo Seco Bay submarine channels filled with turbidite beds. B) Panorama of channelized structureless lower-fine to upper-fine sandstone with occasional mudstone clasts. The individual sandstone beds are 1–3 m thick with associated thin beds of organic-rich, very-fine
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A) Thin-bedded levee units at eastern Palo Seco Bay. B) Two upward-fining and -thinning units of thin-bedded sandstones with interbedded mudstones. C) Thin-bedded unit with amalgamated climbing ripples and associated scours (red arrows). See similar climbing ripples in figure 4 of Hubbard et al. (2009). D) Load structures into mudstone layers and overlain by climbing-ripple beds. E) Very fine sandstone with climbing small dunes. F) Thin-bedded sandstone characterized by traction and cut-and-fill structures, including climbing ripples and asymmetric bidirectional ripples (red arrows). G) Panorama of the levee system. Thin-bedded parallel-laminated or structureless sandstones interbedded with mudstones. H) Incisional avulsion or bifurcation channel some 470 m westward from the levee outcrops. The channel depth of highlighted lenticular channel infill with erosional base is about 3 meters.
Published: 01 January 2016
Fig. 15.— A) Thin-bedded levee units at eastern Palo Seco Bay. B) Two upward-fining and -thinning units of thin-bedded sandstones with interbedded mudstones. C) Thin-bedded unit with amalgamated climbing ripples and associated scours (red arrows). See similar climbing ripples in figure 4
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—Sequence of five X-ray diffractometer patterns of Palo Seco clay. Untreated clay shows peaks for interlayered illite-montmorillonite and kaolinite. Glycolated clay shows displaced montmorillonite (001). At 350°C montmorillonite collapses. At 450° kaolinite is largely reduced. At 550° only collapsed mixed-layer clay peaks remain.
Published: 01 November 1970
Fig. 3. —Sequence of five X-ray diffractometer patterns of Palo Seco clay. Untreated clay shows peaks for interlayered illite-montmorillonite and kaolinite. Glycolated clay shows displaced montmorillonite (001). At 350°C montmorillonite collapses. At 450° kaolinite is largely reduced. At 550
Journal Article
Journal: AAPG Bulletin
Published: 01 November 1970
AAPG Bulletin (1970) 54 (11): 2101–2110.
...Fig. 3. —Sequence of five X-ray diffractometer patterns of Palo Seco clay. Untreated clay shows peaks for interlayered illite-montmorillonite and kaolinite. Glycolated clay shows displaced montmorillonite (001). At 350°C montmorillonite collapses. At 450° kaolinite is largely reduced. At 550...
FIGURES | View All (7)
Journal Article
Journal: AAPG Bulletin
Published: 01 December 1940
AAPG Bulletin (1940) 24 (12): 2102–2125.
... to raise rather than to depress the Santa Flora area in relation to the Palo Seco sector. Although the axis of the Southern Range anticline (northeast of the fault) has not been displaced so far laterally from its southwest counterpart as has the Siparia syncline from the Erin syncline, a sufficient...
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A paleo-Orinoco outer-shelf/shelf-edge Cruse Formation snapshot with wave-river deltas, shelf-edge collapse, and deep-water slope channels and levees. RD—river dominated. (A) Shelf-edge delta front (e.g., Quinam Bay) with deformed slope mudstones. (B) Shelf-edge channels (e.g., Quinam Bay). (C) Distorted and slumped slope channels and shelf-edge collapse (e.g., Morne Diablo). Facies A, B, and C are stacked together within the shelf-edge to deep-water transit systems. (D) Deep-water channels (e.g., Palo Seco Bay). (E) Levees (e.g., Palo Seco Bay). Grain size: Mu—mud; Si—silt; Vf—very fine sand; Fl—lower fine sand; Fu—upper fine sand; M—medium sand.
Published: 10 August 2017
Bay). (C) Distorted and slumped slope channels and shelf-edge collapse (e.g., Morne Diablo). Facies A, B, and C are stacked together within the shelf-edge to deep-water transit systems. (D) Deep-water channels (e.g., Palo Seco Bay). (E) Levees (e.g., Palo Seco Bay). Grain size: Mu—mud; Si—silt; Vf
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—Histograms showing particle size distribution for samples from Moruga Bouffe and Palo Seco mud-volcanoes.
Published: 01 November 1970
Fig. 5. —Histograms showing particle size distribution for samples from Moruga Bouffe and Palo Seco mud-volcanoes.
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Published: 01 August 2004
F IG . 9. Cooling curve for the Camagüey batholith and volcanic host rocks and Palo Seco syenite from Hall et al. (2004) compared with ages and blocking temperatures of alteration minerals included in this study.
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—Paleogeography during Cruse (middle Miocene) deposition. SN, Soldado North field; S, Soldado field; FR, Forest Reserve field; PS, Palo Seco field; G, Galeota field; Sa, Samaan field; T, Teak field; SG, Southeast Galeota field; EQB, Queens Beach field.
Published: 01 September 1976
Fig. 6 —Paleogeography during Cruse (middle Miocene) deposition. SN , Soldado North field; S , Soldado field; FR , Forest Reserve field; PS , Palo Seco field; G , Galeota field; Sa , Samaan field; T , Teak field; SG , Southeast Galeota field; EQB , Queens Beach field.
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Facies FA3 slope muds. A) Slope mudstones representing collapse features on the slope at O2, Palo Seco West. B) Slope laminated muds and silts. C) “Transparent” and chaotic seismic character below mapped Cruse interval indicating slope facies. Stronger reflectors may represent channel slope facies FA4. See Figure 2 for location.
Published: 28 September 2020
Fig. 15.— Facies FA3 slope muds. A) Slope mudstones representing collapse features on the slope at O2, Palo Seco West. B) Slope laminated muds and silts. C) “Transparent” and chaotic seismic character below mapped Cruse interval indicating slope facies. Stronger reflectors may represent
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A) Simplified map of northern South American and the Trinidad area. 1–7 show a plate reconstruction of the leading edge of the Caribbean Plate relative to the South American Plate from the middle Eocene to present: 1) middle Eocene (∼ 44 Ma); 2) Oligocene (∼ 30 Ma); 3) middle Miocene (∼ 14 Ma); 4) Pliocene (∼ 5 Ma); 5) Recent (modified from Garciacaro et al. 2011). The eastward migration of the Caribbean Plate and associated uplift progressively changed the course of the paleo–Orinoco River from northwards to Maracaibo Bay to eastward toward the Atlantic Ocean (labeled a, b, and c; modified from Escalona and Mann 2011). B) Geologic Map of the Cruse Formation and the main structural elements in the Southern Basin (modified after Kugler 1959). The Southern Basin edge is defined by the Central Range Fault (CRF). 1–9 represent the main structural features of the Southern Basin area: 1) Erin syncline, 2) Fyzabad syncline, 3) Debe–Wellington anticline, 4) Penal–Barrackpore anticline, 5) Siparia syncline, 6) Rock Dome anticline, 7) Ortoire syncline, 8) Lizard's Spring Anticline, 9) Cedar Grove fault, 10) Pilote syncline; LB (Los Bajos); WSF (Warm Springs fault); PRF (Point Radix fault). The red polygon highlights the study area dataset. Outcrop localities: O1, Palo Seco West; O2, Palo Seco East; O1, Quinam. C) Polygon of the study area highlighting the dataset consisting of three main outcrop localities, 58 wells, and 2D seismic.
Published: 28 September 2020
fault). The red polygon highlights the study area dataset. Outcrop localities: O1, Palo Seco West; O2, Palo Seco East; O1, Quinam. C) Polygon of the study area highlighting the dataset consisting of three main outcrop localities, 58 wells, and 2D seismic.
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Regional geologic map of the south coast of Trinidad. The red arrows show the direction of strata from older to younger (Kugler, 1959). Site A is on upper map in Cedros Bay. Sites B is near Erin Bay. Sites C and D are near Palo Seco Bay. Site E is near Quinam Bay. Site F is near Morne Diablo Bay (see Table 1 for more outcrop site information). Lower Cruse Formation is dark blue; Upper Cruse Formation is light blue; Forest Formation is gray/green; and Morne L’Enfer Formation is light green.
Published: 10 August 2017
Figure 4. Regional geologic map of the south coast of Trinidad. The red arrows show the direction of strata from older to younger ( Kugler, 1959 ). Site A is on upper map in Cedros Bay. Sites B is near Erin Bay. Sites C and D are near Palo Seco Bay. Site E is near Quinam Bay. Site F is near Morne
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T-t paths for the Camagüey batholith and enclosing volcanic rocks based on age measurements reported here. A different path is required for the Palo Seco syenite, which appears to be older than the syenite and granodiorite that make up the bulk of the Camagüey batholith, as discussed in the text. These T-t paths pass through fields occupied by La Sierra and La Mulata rocks at the time of their emplacement on the surface, which was underlain by rocks of the Camagüey batholith and Cretaceous volcanic arc. T-t path for late-orogenic granites and Mabujina metamorphic rocks in the Escambray area of central Cuba (from Grafe et al. 2001) is shown for comparison.
Published: 01 September 2004
Figure 9. T-t paths for the Camagüey batholith and enclosing volcanic rocks based on age measurements reported here. A different path is required for the Palo Seco syenite, which appears to be older than the syenite and granodiorite that make up the bulk of the Camagüey batholith, as discussed
Series: AAPG Special Publication
Published: 01 January 1958
DOI: 10.1306/SV18350C22
EISBN: 9781629812434
Journal Article
Journal: AAPG Bulletin
Published: 01 December 1947
AAPG Bulletin (1947) 31 (12): 2170–2192.
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Journal Article
Published: 28 September 2020
Journal of Sedimentary Research (2020) 90 (8): 938–968.
...Fig. 17.— Characteristic features of FA5, channel–levee deposits (O2, Palo Seco West). A) Measured section of FA5 channel–levee sands consisting of stacked interbedded and laminated Tc–Te facies at O2, Palo Seco East location. B) Overview of small adjacent channel ∼ 250 m away from the levee...
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Journal Article
Journal: AAPG Bulletin
Published: 01 November 1936
AAPG Bulletin (1936) 20 (11): 1439–1453.
... overlapping the Alley Creek formation and older beds. This conglomerate forms the base of the Palo Seco formation, a monotonous series of silts with layers of sand, having a total thickness of a few thousand feet. Laterally, this conglomerate may be replaced by sand of a pepper-and-salt appearance...
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