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Thrace Basin

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Journal Article
Published: 18 September 2017
Geological Magazine (2019) 156 (1): 39–61.
...ARAL I. OKAY; ERCAN ÖZCAN; AYNUR HAKYEMEZ; MUZAFFER SIYAKO; GÜRSEL SUNAL; ANDREW R.C. KYLANDER-CLARK Abstract The Late Cretaceous – Recent West Black Sea Basin and the Eocene–Oligocene Thrace Basin are separated by the Strandja arch comprising metamorphic and magmatic rocks. Since Late Cretaceous...
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Journal Article
Journal: The Leading Edge
Published: 01 July 2017
The Leading Edge (2017) 36 (7): 588–597.
...Sait Baytok; Burcu Selek; Hüseyin Özdemir Abstract The Thrace Basin of Turkey has sandstone and carbonate reservoirs of Eocene and Oligocene age. Mapping undrained sweet spots from seismic data is currently a challenge, especially because there is no water drive after production. Time-lapse (4D...
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Journal Article
Journal: Interpretation
Published: 23 September 2016
Interpretation (2016) 4 (4): T543–T556.
...Sait Baytok; Şeref Arzu Aktepe; Muhlis Ünaldi Abstract The Thrace Basin that is located in northwestern Turkey contains sandstone and carbonate reservoirs of Eocene and Oligocene age. Production and exploration activities are still underway. Mapping undrained sweet spots from seismic data...
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Journal Article
Published: 01 July 2016
The Journal of Geology (2016) 124 (4): 463–479.
...Şamil Şen; Selin Yıllar Abstract Sediments of the Gaziköy and Keşan Formations (Middle-Upper Eocene) exposed in the southwestern sector of the Thrace Basin of northwestern Turkey yield evidence of activity of two main depositional systems: a slope apron and a submarine fan. The deposits attributed...
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Journal Article
Published: 01 July 2012
Journal of Sedimentary Research (2012) 82 (7): 482–498.
.... Through a multidisciplinary approach, including sandstone petrology and geochemistry of the clastic and volcanoclastic sediments, we reconstruct the unroofing history of the Rhodopian orogen and characterize the formation and the evolution of the western portions of the Thrace basin, in Greece...
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Journal Article
Journal: AAPG Bulletin
Published: 01 March 2009
AAPG Bulletin (2009) 93 (3): 357–377.
...Şamil Şen; Selin Yıllar Abstract The sedimentary sequence of the south Thrace Basin (northwest Turkey) comprises Upper Cretaceous–Holocene sediments. In this basin, the Korudağ anticlinorium, which is the subject of this study, is located between the Aegean Sea in the west and the Sea of Marmara...
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Journal Article
Journal: AAPG Bulletin
Published: 01 October 2005
AAPG Bulletin (2005) 89 (10): 1373–1396.
...Ozkan Huvaz; Hasan Sarikaya; Ömür M. Nohut Abstract Vitrinite reflectance (%R o ) profiles of the Thrace basin are characterized by a regional dogleg pattern corresponding to the depths of Ceylan and Hamitabat formations. We investigated the nature of this dogleg pattern using a one-dimensional...
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Series: Geological Society, London, Special Publications
Published: 01 January 2004
DOI: 10.1144/GSL.SP.2004.222.01.16
EISBN: 9781862394704
... Abstract The inter-montane, fault bounded Thrace Basin of northwestern Turkey is one of the largest Tertiary sedimentary basins in Turkey. Tertiary sedimentation within the basin comprises interbedded fine- to coarse-grained clastics from a variety of depositional environments, muddy carbonates...
Journal Article
Journal: AAPG Bulletin
Published: 01 February 1991
AAPG Bulletin (1991) 75 (2): 241–257.
..., Lüleburgaz, and Babaeski fault zones, which extend for about 130 km through the Thrace basin. The Thrace fault zone probably connected to the southeast with the presently active northern strand of the North Anatolian fault in the Marmara Sea. To the northwest, the zone may have extended to the Plovdiv graben...
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Journal Article
Journal: AAPG Bulletin
Published: 01 May 1982
AAPG Bulletin (1982) 66 (5): 567–568.
...Erkmen Ugur; Bulent Harput The distribution of organic matter in the Eocene-Oligocene sequence of the Thrace basin, Turkey, may be used to help identify depositional cycles and environments. Four types of organic matter (amorphous, herbaceous, woody, coaly) were microscopically recognized...
Journal Article
Journal: Clay Minerals
Published: 01 December 2008
Clay Minerals (2008) 43 (4): 575–595.
... a common origin as do the Nipsa and Makrylofos volcaniclastics. The acidic volcaniclastics and rhyolites have probably also been derived from the same parent source. In the sedimentary basins of Thrace, at the Upper Eocene–Oligocene boundary, extensive volcanic activity yielded abundant dacitic...
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Journal Article
Published: 01 June 2007
Mineralogical Magazine (2007) 71 (3): 327–345.
...I. Marantos; T. Markopoulos; G. E. Christidis Abstract The Tertiary volcano-sedimentary sequence of the Feres basin (Thrace, NE Greece), includes lavas of andesitic–rhyolitic composition as well as volcaniclastic rocks, pyroclastic flows and pyroclastic fall deposits principally of dacitic...
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Image
Generalized stratigraphic section of the Thrace Basin in northwest Türkiye illustrating the depositional environments, lithologies, formation thicknesses, reservoir properties, and geochemical analysis of source rocks. The formations studied in this paper are shown in red (modified from Siyako and Huvaz, 2007).
Published: 09 May 2025
Figure 1. Generalized stratigraphic section of the Thrace Basin in northwest Türkiye illustrating the depositional environments, lithologies, formation thicknesses, reservoir properties, and geochemical analysis of source rocks. The formations studied in this paper are shown in red (modified from
Image
Palaeogeographic cross-sections of the Çatalca gap and the Thrace Basin during late Eocene – middle Oligocene time. The section approximately follows the line of cross-section in Figure 2. (a) During late Eocene time, shallow-marine carbonate deposition characterizes the whole region except the Çatalca gap where pelagic marls are deposited. The Çakıl Fault becomes active at the end of Eocene time. (b) During early Oligocene time, the Çatalca ridge becomes a prominent topographic feature as a result of activity along the Çakıl fault. It controls the sedimentation and separates the Thrace Basin from the Black Sea area. Pelagic marl deposition in the Çatalca gap extends throughout the region except along the Çatalca ridge, where marginal marine to lagoonal limestones and shales, the Pınarhisar Formation, are deposited. (c) The Çakıl Fault continues its activity later during early Oligocene time, creating accommodation space in the Thrace Basin filled by the sandstones of the Osmancık–Danışmen formations. The Çatalca gap becomes an area of non-deposition due to thrusting along the Black Sea margin.
Published: 18 September 2017
Figure 8. Palaeogeographic cross-sections of the Çatalca gap and the Thrace Basin during late Eocene – middle Oligocene time. The section approximately follows the line of cross-section in Figure 2 . (a) During late Eocene time, shallow-marine carbonate deposition characterizes the whole region
Image
Simplified lithological logs for some of the wells in Thrace Basin west of the Çatalca ridge (Turgut & Eseller, 2000; Hoşgörmez & Yalçın, 2005). For the location of the wells see Figures 2 and 13.
Published: 18 September 2017
Figure 15. Simplified lithological logs for some of the wells in Thrace Basin west of the Çatalca ridge (Turgut & Eseller, 2000 ; Hoşgörmez & Yalçın, 2005 ). For the location of the wells see Figures 2 and 13 .
Image
Generalized stratigraphy of the Thrace Basin showing the depositional environments, formation thicknesses, petrophysical properties of the reservoir rocks, type, and average percent of total organic carbon of the source rocks (modified from Huvaz et al., 2005).
Published: 23 September 2016
Figure 2. Generalized stratigraphy of the Thrace Basin showing the depositional environments, formation thicknesses, petrophysical properties of the reservoir rocks, type, and average percent of total organic carbon of the source rocks (modified from Huvaz et al., 2005 ).
Image
Map of the Thrace Basin. Red rectangle indicates the study area approximately. Map also shows geologic formations and gas and oil fields (modified from Turgut et al., 1991).
Published: 23 September 2016
Figure 1. Map of the Thrace Basin. Red rectangle indicates the study area approximately. Map also shows geologic formations and gas and oil fields (modified from Turgut et al., 1991 ).
Image
Block diagram of the southwestern Thrace Basin. 1 = Late Cretaceous–Early Eocene package; 2 = Middle Eocene–Early Miocene package; 2A = allochthonous block facies of the Gaziköy Formation; 3 = Middle Miocene–Early Pliocene package; 4 = Late Pliocene–Early Pleistocene rocks.
Published: 01 July 2016
Figure 14. Block diagram of the southwestern Thrace Basin. 1 = Late Cretaceous–Early Eocene package; 2 = Middle Eocene–Early Miocene package; 2A = allochthonous block facies of the Gaziköy Formation; 3 = Middle Miocene–Early Pliocene package; 4 = Late Pliocene–Early Pleistocene rocks.
Image
Figure 1.
Published: 03 June 2015
Figure 1. Main tectonic domains of NW Turkey: Thrace Basin (light grey), Strandja Massif (dark grey) and İstanbul Zone (grey). Heavy short dashed lines show the approximate position of the West Black Sea Fault. Heavy long dashed lines indicate Late Miocene fault
Image
(a) Block diagram of the southwest Thrace Basin along lines A, B, and C (see Figure 3 for the location); (1) upper Cretaceous–lower Eocene package, (2) middle Eocene–lower Miocene package, (2A) allochthonous blocks facies of the Gaziköy Formation, (3) middle Miocene–lower Pliocene package, (4) upper Pliocene–lower Pleistocene rocks. NAF-N = northern branch of the North Anatolian fault. (b) Time-migrated seismic section along line 1 (see Figure 1 for the location) (modified from Kurt et al., 2000).
Published: 01 March 2009
Figure 4 (a) Block diagram of the southwest Thrace Basin along lines A, B, and C (see Figure 3 for the location); (1) upper Cretaceous–lower Eocene package, (2) middle Eocene–lower Miocene package, (2A) allochthonous blocks facies of the Gaziköy Formation, (3) middle Miocene–lower Pliocene