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Jaffa Basin

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Journal Article
Published: 01 March 2008
Journal of the Geological Society (2008) 165 (2): 563–578.
... accumulated and at a middle level between the two faults a local basin was formed and filled with a 2500 m thick section. That basin, termed here the Jaffa Basin, provides good age control. It was initiated in the Mid–Late Oligocene, was mainly active in the Miocene and was completely buried by sediments...
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First thumbnail for: Reactivation of the Levant passive margin during t...
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 Structural maps (values are metres below sea level) showing the development and burial of the Jaffa Basin. The dashed white lines in (d) emphasize that the present topography preserves a curved structure around the Jaffa Basin depocentre, whereas the bathymetry does not (nearly straight lines).
Published: 01 March 2008
Fig. 5.  Structural maps (values are metres below sea level) showing the development and burial of the Jaffa Basin. The dashed white lines in ( d ) emphasize that the present topography preserves a curved structure around the Jaffa Basin depocentre, whereas the bathymetry does not (nearly
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 Isopach map of Late Eocene to present sediments (Saqiye and Kurkar groups) in the Jaffa Basin based on the Israeli oilwell database (Fleischer & Varshavsky 2002). Red dots are wells that penetrate the base Saqiye Group. Black dots are wells that did not reach the base. The faults west of the Jaffa Basin are based on seismic mapping as demonstrated in Figures 11 and 12.
Published: 01 March 2008
Fig. 4.  Isopach map of Late Eocene to present sediments (Saqiye and Kurkar groups) in the Jaffa Basin based on the Israeli oilwell database ( Fleischer & Varshavsky 2002 ). Red dots are wells that penetrate the base Saqiye Group. Black dots are wells that did not reach the base. The faults
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 Tectonic interpretation of the kinematic relationship between the NW–SE-trending Suez and Qishon–Sirhan rifts and the margin-parallel fault system that formed the Jaffa Basin during the early stage of Africa–Arabia breakup. It should be noted that when the plate motion jumped inland to the Dead Sea Transform, the Suez Rift and the Jaffa Basin were abandoned, whereas the Carmel Fault along the Qishon Graben was reactivated. The pattern of the Qishon–Sirhan rift is taken from Schattner et al. (2006).
Published: 01 March 2008
Fig. 14.  Tectonic interpretation of the kinematic relationship between the NW–SE-trending Suez and Qishon–Sirhan rifts and the margin-parallel fault system that formed the Jaffa Basin during the early stage of Africa–Arabia breakup. It should be noted that when the plate motion jumped inland
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 DD′ is a regional geological cross-section from the Dead Sea to the Levant basin crossing the Jaffa Basin at its centre. CC′ is a parallel cross-section from the Jordan Valley to the Levant basin crossing the Jaffa Basin near its northern edge, where the coastal plain fault does not exist (for section location see Figs 6 and 13). In the offshore area cross-sections CC′ and DD′ are geoseismic. The original interpreted time sections are shown in Figures 11 and 12. The base Senonian horizon (top Judea group laterally changing to top Talme Yafe Formation) is highlighted by a thicker line.
Published: 01 March 2008
Fig. 8.  DD′ is a regional geological cross-section from the Dead Sea to the Levant basin crossing the Jaffa Basin at its centre. CC′ is a parallel cross-section from the Jordan Valley to the Levant basin crossing the Jaffa Basin near its northern edge, where the coastal plain fault does
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 Map summarizing all the features coinciding in time and space in and around the Jaffa Basin. The purple contour schematically represents the rhombic structure of the base Saqiye Group surface, which fits the shape of the Judea Group truncation zone (green zone). Together they indicate a fault-bounded basin. The less rhombic and larger structure of the base Yafo and base Kurkar surfaces indicates gradual development of the basin toward an elliptic bowl-shaped structure. The curvature around the basin is preserved in the current topography but not in the current bathymetry, which is governed by high-volume Nile-derived sediments.
Published: 01 March 2008
Fig. 13.  Map summarizing all the features coinciding in time and space in and around the Jaffa Basin. The purple contour schematically represents the rhombic structure of the base Saqiye Group surface, which fits the shape of the Judea Group truncation zone (green zone). Together they indicate
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 The top Judea Group structural map (Fleischer & Gafsou 2003). Bold lines represent major faults; fine lines represent minor faults. Red, faults defined as active or potentially active (Bartov et al. 2002). Blue, reverse faults associated with Syrian Arc folds. Black, normal faults. The grey area at the eastern rim of the Jaffa Basin represents a truncation band where the top of the Judea Group is truncated by the base Saqiye Group. West of that band the Saqiye Group unconformably covers the Talme Yafe Formation. 1, Pardes Hanna water well; 2, Netanya 1 oilwell; 3, Hadera 1 oilwell; 4, Caesarea 1 oilwell; 5, Ashdod 3 oilwell; 6, Netanya 2 oilwell; 7, Hof Asdod 1 oilwell. BR is the Bet Rosh outcrop referred to in Figure 10.
Published: 01 March 2008
faults. The grey area at the eastern rim of the Jaffa Basin represents a truncation band where the top of the Judea Group is truncated by the base Saqiye Group. West of that band the Saqiye Group unconformably covers the Talme Yafe Formation. 1, Pardes Hanna water well; 2, Netanya 1 oilwell; 3, Hadera 1
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 Stratigraphic table of the study area based on previous publications (Bein & Gvirtzman 1977; Ginzburg & Gvirtzman 1979; G. Gvirtzman 1990; Buchbinder et al. 1993; Buchbinder & Zilberman 1997; Fleischer & Varshavsky 2002; Z. Gvirtzman 2003). Absolute ages for the Jurassic and Cretaceous after Gradstein et al. (1995) and for the Cenozoic after Berggren et al. (1995). Highlighted surfaces are base Kurkar Group, base Yafo Formation, and base Saqiye Group, which refer to the structural maps of Figure 5; and also the base Mount Scopus Group, which refers to the structural map of Figure 6 and the highlighted horizon of Figure 8. The significant modification introduced in this chronostratigraphic scheme relative to previous ones is that the absence of Late Cretaceous and early Tertiary sediments in the coastal plain is interpreted as the result of late Tertiary erosion at the eastern rim of the Jaffa Basin rather than a lack of deposition.
Published: 01 March 2008
erosion at the eastern rim of the Jaffa Basin rather than a lack of deposition.
Journal Article
Published: 01 November 2013
Journal of Sedimentary Research (2013) 83 (11): 942–954.
.... 2008 , Reactivation of the Levant passive margin during the late Tertiary and formation of the Jaffa basin offshore central Israel : Geological Society of London, Journal , v. 165 , p. 563 – 578 . Gvirtzman Z...
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First thumbnail for: Evidence of Clastic Evaporites In the Canyons of t...
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Journal Article
Journal: Geology
Published: 01 April 2011
Geology (2011) 39 (4): 355–358.
.... Offshore Egypt, this unit builds the Nile Delta, reaching a thickness of ∼4 km ( Said, 1981 ; Segev et al., 2006 ). Offshore Israel, this unit completely fills the Jaffa Basin ( Gvirtzman et al., 2008 ) and obscures the coastal plain step under the present-day continental shelf ( Fig. 2...
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First thumbnail for: Origin and nature of the rapid late Tertiary filli...
Second thumbnail for: Origin and nature of the rapid late Tertiary filli...
Third thumbnail for: Origin and nature of the rapid late Tertiary filli...
Journal Article
Published: 01 June 1928
Bulletin of the Seismological Society of America (1928) 18 (2): 73–103.
... 1534 Ar Syria, Palestine 1546 P,B,V Same locality Syria; several cities ruined, great earthquake wave 1569 M Syria 1577 Ar Syria and Palestine; 32,000 victims Same locality; 30,000 victims 1640 P Palestine : Jerusalem 1656 B Palestine: Jaffa, Siehe, and Rama (Ramleh earthquake 1666 P, B, V wave, hed...
Journal Article
Journal: Geology
Published: 20 December 2017
Geology (2018) 46 (2): 175–178.
...://doi.org/10.1029/2011TC002994 . Gvirtzman , Z. , Zilberman , E. , and Folkman , Y. , 2008 , Reactivation of the Levant passive margin during the late Tertiary and formation of the Jaffa Basin offshore central Israel : Journal of the Geological Society , v. 165 , p. 563 – 578 , https...
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First thumbnail for: 80 m.y. of folding migration: New perspective on t...
Second thumbnail for: 80 m.y. of folding migration: New perspective on t...
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Journal Article
Published: 01 January 2010
Journal of the Geological Society (2010) 167 (1): 203–216.
... of structural highs, the general trend of this erosive surface slopes towards the basin (i.e. to the SE), indicating Plio-Pleistocene uplift of the inland region (Carmel–Samaria) and basin subsidence offshore (Jaffa basin). Many studies have discussed the questions of when Mt Carmel was uplifted...
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First thumbnail for: New age constraints on the evolution of the Mt Car...
Second thumbnail for: New age constraints on the evolution of the Mt Car...
Third thumbnail for: New age constraints on the evolution of the Mt Car...
Journal Article
Published: 01 June 2007
Bulletin of the Seismological Society of America (2007) 97 (3): 705–724.
..., Missyaf fault; P, Palmerides; PTF, Paphos Transform fault; RcF, Rachaiya fault; RoF, Roum fault; SF, Serghaya fault; YF, Yammaouneh fault. Localities: A, Antioch (Antakya); Ak, Akko; Al, Ashkelon; Ap, Allepo; As, Ashdod; B, Beirut; C, Caesarea; Ca, Cairo; D, Damascus; G, Gaza; H, Homs (Hims); J, Jaffa; K...
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First thumbnail for: Tsunami Hazard Evaluation of the Eastern Mediterra...
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Journal Article
Journal: GSA Bulletin
Published: 16 October 2024
GSA Bulletin (2025) 137 (3-4): 1423–1436.
.../98TC00235 . Gvirtzman , Z. , Zilberman , E. , and Folkman , Y. , 2008 , The Jaffa Basin offshore central Israel Reactivation of the Levant passive margin during the late Tertiary and formation of : Journal of the Geological Society , v. 165 , p. 563 – 578 , https://doi.org/10.1144...
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First thumbnail for: Exploring the relationship between sedimentary tra...
Second thumbnail for: Exploring the relationship between sedimentary tra...
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Journal Article
Journal: Lithosphere
Publisher: GSW
Published: 01 April 2011
Lithosphere (2011) 3 (2): 95–109.
... of the Levant passive margin during the Late Tertiary and formation of the Jaffa Basin offshore central Israel : Journal of the Geological Society of London , v. 165 , p. 563 – 578 , doi:10.1144/0016-76492006-200 . Hall J.K. , 1993 , The GSI digital terrain model (DTM) project completed...
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First thumbnail for: Retreating Late Tertiary shorelines in Israel: Imp...
Second thumbnail for: Retreating Late Tertiary shorelines in Israel: Imp...
Third thumbnail for: Retreating Late Tertiary shorelines in Israel: Imp...
Journal Article
Journal: GSA Bulletin
Published: 06 June 2025
GSA Bulletin (2025)
... Congress on Sedimentology: International Association of Sedimentologists, p. 160 191. Gvirtzman, Z., Zilberman, E., and Folkman, Y., 2008, Reactivation of the Levant passive margin during the late Tertiary and formation of the Jaffa Basin offshore central Israel: Journal of the Geological Society, v. 165...
Journal Article
Journal: AAPG Bulletin
Published: 15 June 2019
AAPG Bulletin (2019) 103 (6): 1321–1350.
... of the Jaffa Basin offshore central Israel : Journal of the Geological Society , v.  165 , no.  2 , p.  563 – 578 . Hawthorne , F. C. , R. Oberti , G. E. Harlow , W. V. Maresch , R. F. Martin , J. C. Schumacher , and M. D. Welch , 2012 , Nomenclature of the amphibole...
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First thumbnail for: Late Mesozoic sediment provenance on Georges Bank:...
Second thumbnail for: Late Mesozoic sediment provenance on Georges Bank:...
Third thumbnail for: Late Mesozoic sediment provenance on Georges Bank:...
Journal Article
Journal: GSA Bulletin
Published: 17 August 2023
GSA Bulletin (2024) 136 (3-4): 1587–1604.
.... , 2008 , Reactivation of the Levant passive margin during the late Tertiary and formation of the Jaffa Basin offshore central Israel : Journal of the Geological Society , v. 165 , p. 563 – 578 , https://doi.org/10.1144/0016-76492006-200 . Gvirtzman , Z. , Steinberg , J. , Bar , O...
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First thumbnail for: Tracing Oligocene–Miocene source-to-sink systems i...
Second thumbnail for: Tracing Oligocene–Miocene source-to-sink systems i...
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Journal Article
Published: 03 April 2018
Journal of Sedimentary Research (2018) 88 (4): 431–448.
...-and storm-dominated, open cool-water carbonate platform ( James and Bone 2011 ). Dominant wind and swell-wave approach is from the southwest year-round, with storms occurring in the winter and spring, from June to November. Cape Jaffa lighthouse observation statistics indicate typical wave heights of > 2...
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First thumbnail for: Diagenesis and Compositional Partitioning of Quate...
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