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Capo d'Orlando Basin

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Journal Article
Published: 01 October 2019
Italian Journal of Geosciences (2019) 138 (3): 355–370.
... processes in adjacent ones. In this paper, I evaluate the relationships between tectonic activity and sedimentary processes in several distinct environments, and in different times within the last sea-level cycle, in the submarine part of a single sedimentary system: the Capo d’Orlando Basin. The study area...
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Image
- a) sparker line BC08, crossing longitudinally the Capo d’Orlando Basin (location in Fig. 3). In this profile and in panels b and c, the green line is the reflector corresponding with the Messinian erosional surface. A main active extensional fault separates the basin plain from the Finale Seamount. Other major extensional faults which originated the horst and graben setting of the margin, are mainly inactive and buried. An active fault cuts the seafloor and represent the western flank of the Calavà Channel; b) sparker line BC28 crossing longitudinally the Capo d’Orlando Basin (location in Fig. 3). Active faults correspond with the flanks of the Capo d’Orlando and Calavà channels; c) sparker line BC38, crossing longitudinally the Capo d’Orlando basin continental shelf and the Finale intraslope basin (location in Fig. 3). At the western limit of the Acquedolci shelf sector, a fault is located in correspondence of the head of one of the canyons. In the Acquedolci shelf sector, gullies formed originally in the upper slope are at present overlain by shelf deposits. Landslide deposits make up much of the recent infill of the Finale intraslope basin.
Published: 01 October 2019
Fig. 4 - a) sparker line BC08, crossing longitudinally the Capo d’Orlando Basin (location in Fig. 3 ). In this profile and in panels b and c, the green line is the reflector corresponding with the Messinian erosional surface. A main active extensional fault separates the basin plain from
Image
- Shaded relief map of the Capo d’Orlando Basin derived from multibeam bathymetric data. The inset in the upper right corner shows the location of the study area within the Tyrrhenian Sea. The basin plain lies at a depth of about 1500 m. The dashed white line outlines the seaward margin of the basin. On land, to the east, the Peloritani Mountains are part of the Calabrian Arc, while to the west the Nebrodi Mountains are part of the Maghrebian chain. Land data modified from Pavanoet alii, 2015 (COF= Capo d’Orlando Fault; TL= Taormina tectonic lineament; ATLL= Aeolian-Tindari-Letojanni Lineament).
Published: 01 October 2019
Fig. 1 - Shaded relief map of the Capo d’Orlando Basin derived from multibeam bathymetric data. The inset in the upper right corner shows the location of the study area within the Tyrrhenian Sea. The basin plain lies at a depth of about 1500 m. The dashed white line outlines the seaward margin
Image
- Geophysical data available over the Capo d’Orlando Basin (location in Fig. 1). The red lines correspond with the traces of the regional Sparker seismic profiles. The lines in other colours mark the traces of the sub-bottom profiles, acquired during numerous cruises with a Chirp system. A deep towed sidescan sonar (MAK II) mosaic is available in the area within the dashed red box.
Published: 01 October 2019
Fig. 2 - Geophysical data available over the Capo d’Orlando Basin (location in Fig. 1 ). The red lines correspond with the traces of the regional Sparker seismic profiles. The lines in other colours mark the traces of the sub-bottom profiles, acquired during numerous cruises with a Chirp system
Image
- Structural map of the Capo d’Orlando basin (location in Fig. 1); the tectonic pattern has been reconstructed through the interpretation of multibeam bathymetry and seismic data; only the main faults are marked. The isopachs (lines in different tones of blue; values: seconds in two-way travel times) of the Plio-Quaternary deposits, from BIGI et alii, (1992), show the relationships between the tectonic structures and the Plio-Quaternary depocenters.
Published: 01 October 2019
Fig. 3 - Structural map of the Capo d’Orlando basin (location in Fig. 1 ); the tectonic pattern has been reconstructed through the interpretation of multibeam bathymetry and seismic data; only the main faults are marked. The isopachs (lines in different tones of blue; values: seconds in two-way
Image
- 3-D image of the western part of the Capo d’Orlando Basin showing the variations in the character of the shelf edge; canyon spacing, relief and degree of landward indentation also vary along the margin. In the western side, canyon heads are far from the coastline. In the eastern side, on the contrary, the Capo’Orlando and the Zappulla Canyon heads are very close to the coast. The dashed blue line is the 130 m isobaths, representing the location of the coast during the last glacial maximum as reported by Antonioli (2012).
Published: 01 October 2019
Fig. 9 - 3-D image of the western part of the Capo d’Orlando Basin showing the variations in the character of the shelf edge; canyon spacing, relief and degree of landward indentation also vary along the margin. In the western side, canyon heads are far from the coastline. In the eastern side
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- a) schematic map of the depositional setting in the Capo d’Orlando basin plain (contour interval 100 m; location in Fig. 1), showing the turbidite, mass-transport and mixed deep-sea fans (GAMBERI et alii, 2015). The depocenters of the four most recent stratigraphic units (shown also in the subbottom profiles of the following images), outlined with the lines with different colours, are fixed in time in the deepest part of the basin; b) E-W-trending chirp profile (location in panel a) crossing the deepest part of the basin. The axis of the depocentres of the four most recent units are always located in the deepest part of the basin, without any lateral migration; c) chirp profile showing the basin plain and an intrabasinal high (location in panel a). Active and recent faults control the thickness of the four most recent units. The thickest deposits are found within a graben; the sediment infill of a half-graben shows a conspicuous thinning in the area where footwall uplift occurs; d) chirp profile showing faults close to the basin margin (location in panel a). The main thinning of the four most recent units occurs across an inactive extensional fault; it is possibly due to differential compaction above the relatively deep-seated inactive fault. A flexure also affects the thickness of the four most recent units of the basin infill and is possibly controlled by another deep-seated inactive fault.
Published: 01 October 2019
Fig. 12 - a) schematic map of the depositional setting in the Capo d’Orlando basin plain (contour interval 100 m; location in Fig. 1 ), showing the turbidite, mass-transport and mixed deep-sea fans (GAMBERI et alii, 2015). The depocenters of the four most recent stratigraphic units (shown also
Image
- Shaded relief map of the Capo d’Orlando Basin. The slope of the Finale Seamount is the western margin of the basin and corresponds with a set of NNE-SSW trending extensional faults (red line) that lower the western part of the basin. A wide channel-levee complex develops in the eastern part of the basin. A relatively flat basin plain (dashed white line) spans much of the northern and western part of the margin, away from the progradading base-of-slope levee wedges.
Published: 01 October 2019
Fig. 13 - Shaded relief map of the Capo d’Orlando Basin. The slope of the Finale Seamount is the western margin of the basin and corresponds with a set of NNE-SSW trending extensional faults (red line) that lower the western part of the basin. A wide channel-levee complex develops in the eastern
Image
- Schematic map of the fan system in the Capo d’Orlando Basin (location in Fig. 13). The Calava is the largest fan and due to the basin dip towards the west it takes up an E-W course and spans much of the northern part of the basin. The other fans are smaller and do not develop axial tracts.
Published: 01 October 2019
Fig. 14 - Schematic map of the fan system in the Capo d’Orlando Basin (location in Fig. 13 ). The Calava is the largest fan and due to the basin dip towards the west it takes up an E-W course and spans much of the northern part of the basin. The other fans are smaller and do not develop axial
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Seafloor reflectivity from multibeam data of the Capo d’Orlando Basin. The Zappulla channel and related mass-transport lobes have a very high backscatter. The Calavà fan distributary channels correspond with narrow linear stripes with higher backscatter than the surrounding seafloor. Large sediment waves are shown by alternating stripes of higher and lower backscatter in the Naso and Calavà fans.
Published: 01 April 2015
Figure 2. Seafloor reflectivity from multibeam data of the Capo d’Orlando Basin. The Zappulla channel and related mass-transport lobes have a very high backscatter. The Calavà fan distributary channels correspond with narrow linear stripes with higher backscatter than the surrounding seafloor
Image
(A) Shaded relief map from multibeam bathymetric data of the Capo d’Orlando Basin. The southern slope of the Aeolian Island arc confines the basin to the north. A fault-bounded structural ridge and the slope of the Lipari and Vulcano islands are the western and eastern boundaries of the basin, respectively. Seismicity (dots), historical earthquakes (stars) and focal mechanisms are from Pondrelli et al. (2006). (B) Seismic and subbottom CHIRP (compressed high-intensity radar pulse) profile coverage over the study area. (C) Location of the Capo d’Orlando Basin along the northern Sicilian margin. The box corresponds with the area in A.
Published: 01 April 2015
Figure 1. (A) Shaded relief map from multibeam bathymetric data of the Capo d’Orlando Basin. The southern slope of the Aeolian Island arc confines the basin to the north. A fault-bounded structural ridge and the slope of the Lipari and Vulcano islands are the western and eastern boundaries
Image
Shaded relief map from multibeam bathymetric data of the continental shelf and the slope of the Capo d’Orlando Basin (see location in Fig. 3). The Calavà and the Orlando are coast-connected canyons having heads that reach the coastal area. The Naso and Zappulla canyons are disconnected canyons with heads at the shelf break far from the coastline. The boxes correspond to the areas in Figure 11.
Published: 01 April 2015
Figure 5. Shaded relief map from multibeam bathymetric data of the continental shelf and the slope of the Capo d’Orlando Basin (see location in Fig. 3 ). The Calavà and the Orlando are coast-connected canyons having heads that reach the coastal area. The Naso and Zappulla canyons
Journal Article
Published: 01 October 2019
Italian Journal of Geosciences (2019) 138 (3): 317–332.
...Fig. 13 - Shaded relief map of the Capo d’Orlando Basin. The slope of the Finale Seamount is the western margin of the basin and corresponds with a set of NNE-SSW trending extensional faults (red line) that lower the western part of the basin. A wide channel-levee complex develops in the eastern...
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Series: SEPM Special Publication
Published: 01 January 2009
DOI: 10.2110/sepmsp.092.207
EISBN: 9781565762008
... Cornaglia terrace. The Gonone–Orosei canyon system separates the Sardinian margin into northern and southern intraslope basins. The Capo d’Orlando and the Gioia Basins straddle the northeastern Sicilian margin. The Capo D’Orlando basin is confined seawards by the Aeolian Island Arc, whereas the Gioia Basin...
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Journal Article
Journal: Geosphere
Published: 01 April 2015
Geosphere (2015) 11 (2): 307–319.
...Figure 2. Seafloor reflectivity from multibeam data of the Capo d’Orlando Basin. The Zappulla channel and related mass-transport lobes have a very high backscatter. The Calavà fan distributary channels correspond with narrow linear stripes with higher backscatter than the surrounding seafloor...
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Journal Article
Journal: GSA Bulletin
Published: 01 January 2011
GSA Bulletin (2011) 123 (1-2): 132–149.
... of the: (1) Upper Oligocene–Middle Burdigalian siliciclastic sediments (Stilo-Capo d'Orlando Formation), which unconformably overlie the Peloritani nappes and fill a long-lived forearc basin that evolved during collision into a thrust-top basin; (2) Upper Cretaceous varicolored clays of the Antisicilide unit...
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(A) Representative one-dimensional (1-D) burial and thermal modeling of the Stilo-Capo d'Orlando Formation in the basin depocenter. (B) Present-day maturity data plotted against calculated maturity curve. Depth for each sample is based on outcrop distribution.
Published: 01 January 2011
Figure 11. (A) Representative one-dimensional (1-D) burial and thermal modeling of the Stilo-Capo d'Orlando Formation in the basin depocenter. (B) Present-day maturity data plotted against calculated maturity curve. Depth for each sample is based on outcrop distribution.
Journal Article
Published: 01 January 2003
Italian Journal of Geosciences (2003) 122 (3): 483–501.
... for the Oligocene-Aquitanian Frazzano Flysch on the palaedomain of Longi; the Aspromonte Nappe--probably already in place outside the Longi area--would have supplied the detritus for the so called Capo d'Orlando Flysch molasse that mantles previously emplaced nappes. The position of the "Sicilidi" materials...
Journal Article
Published: 01 March 2005
Journal of Sedimentary Research (2005) 75 (2): 268–279.
... ). Volumetrically, the Stilo–Capo d'Orlando Formation is the most important unit of the Ionian forearc basin fill. Outcrops of the Stilo–Capo d'Orlando Formation expose a cross section, orthogonal to paleoflow, of the proximal part of a turbidite depositional system. Major erosion surfaces cutting into basement...
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Journal Article
Published: 15 June 2017
Geological Magazine (2018) 155 (2): 422–437.
.... Figure 3. (a) Stratigraphic scheme of syn-tectonic terrigenous deposits of the Peloritani Mountains; (b) geometry of the Paleogene–Neogene syn-tectonic terrigenous sequences of the Peloritani Mountains and their relation to the main shear zones. UO = Upper Oligocene deposits of the Capo d'Orlando...
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