Türkiye Jeoloji Bülteni
Türkiye Jeoloji Bülteni
ISSN: 1016-9164 | e-ISSN: 2564-6745 | Yayın Aralığı: Yılda 3 Sayı | Yayın Başlangıç Yılı: 1947
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Geological Bulletin of Turkey, established in 1947, is one of the oldest and best-known periodicals of this country. It is an open access journal and publishes original research papers after a peer-review procedure in Turkish or English.

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2024 NİSAN Cilt 67 Sayı 2

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Morphotectonic Development of Dolines on Mt. Bozdag (Karaburun Peninsula)
Mehmet Furkan Şener
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Abstract: This study investigated the morphometric and morphogenetic characteristics of dolines in the Bozdağ Massif, located in the north of Karaburun Peninsula. Dissolution dolines are one of the characteristic surface features of mid-latitude high karst plateaus, and doline morphometry is one of the methods commonly used to study the morphotectonic evolution characteristics of karst plateaus. In this study, an automatic extraction technique wasused with a high-resolution digital elevation model to determine the areal distribution, density and morphometric characteristics of dolines. After the dolines were identified, several morphometric parameters such as area, perimeter,circularity index, length, width and elongation rates were calculated. According to the analyses and results obtained, a total of 564 dolines were detected in the area, with a maximum density of 74 dolines/km2. All the dolines, with anaverage elevation of 1,080 metres, are located on limestone from the Camiboğazı Formation. The dolines extendin roughly NW-SE direction, parallel to lineaments in the area, which formed in relation to tectonic processes that started with palaeotectonic evolution and influenced the Karaburun platform in the Izmir-Ankara zone during the Cretaceous period

  • Bozdağ

  • Camiboğazı

  • doline

  • Karaburun

  • morphotectonic



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  • Neogene Geology of the Menteş Peninsula, Western Anatolia
    Fikret Göktaş
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    Abstract: The terrestrial Neogene sequence of the Menteş Peninsula, located in the Urla section of the Foça Depression, comprises the Middle Miocene Urla Group. The Urla Group unconformably overlies the late Early Miocene Kocadağ Volcanics and consists of sedimentary and volcanic rock units. A sedimentary succession, consisting predominantly of lacustrine deposits, begins with the Bozavlu Formation reflecting alluvial fan sedimentation, continues with the volcano-sedimentary Güvendik Formation deposited on the lacustrine shoreface, and ends with the Urla Limestone. The Güvendik succession frequently contains volcanoclastic density currentlevels in epiclastic (lahar and turbiditic sandstone) and pyroclastic (ignimbrite, base surge, blocky ash flow) facies,reflecting the early period of Menteş volcanism. The Urla Limestone conformably overlies the Güvendik Formation.The Urla Limestone succession contains tuff interlayers with ash fall facies of the Menteş volcanism from bottom totop. Algal bioclastites and oncoidal limestones were deposited at the base and transgressive parts of the limestone succession, formed by waves in the foreshore belt. The Middle Miocene alkali volcanism of the Menteş Peninsula is represented by the Menteş Volcanics and the Ovacık Basalt. Menteş volcanism, which yields products in the trachyte rhyolite composition range, consists of pyroclastics, composite lava domes and dome-flows. The pyroclastic sequence starts with unwelded ignimbrites containing accidental lithics derived from the Ovacık Basalt, and continues with  successive levels of blocky ash flow and base surge. Menteş volcanism evolved in the lake where the Güvendik and Urla Limestone units were deposited. Basic volcanism, which developed laterally to the Menteş acidic volcanism, continued to be active intermittently from the beginning of Urla Limestone deposition to the last stages. 

  • Karaburun Peninsula

  • Middle Miocene Sedimentation

  • Middle Miocene Volcanism

  • Urla Basin

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  • Karstic Formations of the Eastern Black Sea: Geotourism Potential of Karaca (Torul, Gümüşhane) and Çal (Düzköy, Trabzon) Caves
    Fatih Köroğlu
    PDF Olarak Görüntüle

    Abstract: The sedimentary rock groups in Türkiye, which comprise valuable geological heritage, have been the focus of important publications world wide, first in palaeontology and then in sedimentology. The distribution of sedimentological units on the geological map of Türkiye is very diverse and corresponds to the palaeotectonic history of the region. The rocks suitable for karstification, mainly carbonate rock groups, have a significant volume in Türkiye. This volume, together with the effects of the climate zone and tectonics, has led to the formation of karstic caves and sink holes on a large scale. These karstic structures have created natural resources that attract tourists.Today, geotourism is a concept that combines both geological and touristic assets. The total number of visitors inthe 4-year period between 2020 and 2023 was 355,923 in Karaca Cave and 514,947 in Çal Cave. As examples of geological resource assets in regions with limited economic development, attempts to evaluate Karaca and Çalcaves in terms of tourism can be measured as the important contribution of karst structures to tourism potentialin the Eastern Black Sea region. This study showed that rocks of sedimentary origin have a regional, global, and sustainable impact in the context of geotourism and play a role both in geological terms and as tourist attractions.

  • Çal Cave

  • Eastern Black Sea

  • geotourism

  • Karaca Cave

  • karstic

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  • Geomorphology and Formation of Natural Travertine Bridges in Diyadin (Ağrı), Eastern Anatolia, Turkey
    Selahattin Polat İsmail Ege
    PDF Olarak Görüntüle

    Abstract: This study aims to reveal the geomorphological characteristics of two natural bridges, which are among the rare landforms on the Murat River, and the factors affecting their formation, as well as the main problems relatedto these bridges, the work to be done for protection of the bridges, and their importance as geoheritage. The natural bridges, formed as a result of very special geomorphological processes, are located on the Murat River between the villages of Dibekli-Mollakara-Tazekent-Davut-Göğebakan-Taşbasmak in the south of Diyadin (Ağrı) District, in thearea we can call the Diyadin Geothermal Area (DGA). Observations were made in the field; Geological, geomorphological and tectonic features were examined, the elevations, lengths and widths of travertine ridges, cones and chimneys in the area were measured by a laser meter inorder to reveal the characteristics of travertine accumulation patterns and their coordinates were taken with GPS. Aliterature study was carried out and a geomorphology map was produced with ArcGIS 10.8 package software basedon the digital data obtained in the field studies.Köprüçermik Bridge on the Murat River is 64 m long in a NNW-SSE direction. The width of the bridge varies between 9.5-21 m in the upper section. The Murat River flows in a bed with a width of 7 m under the bridge. The thickness of the travertines forming the bridge is 15 m at the entrance and 22 m at the exit. Travertine depositioncontinues on the eastern slope of the entrance of the bridge.To the north of Köprüçermik Bridge there is a natural bridge called "Kudret Bridge" by the local people. The bridge, which is used as a highway bridge connecting the settlements east and west of the Murat River, is 30 meterswide and 63 meters long. The bridge opens near the NNW end of the travertine ridge extending in a NNW-SSEdirection. Among these natural travertine bridges, Köprüçermik Bridge has features rarely seen in the world. It was formed by the travertine ridges running in different directions because of the thermal waters coming to the surface along the tectonic lines on both sides of the Murat River; first gaining elevation in a vertical direction, and then by the mutual horizontal development of these ridges on the river bed. Kudret Bridge was opened by the Murat River undercutting the travertine ridge and then widening it. Kudret Bridge is a fossilised travertine bridge and has partially lost its primitive morphology. As with otherforms of travertine accumulation in the area (cones, terraces, chimneys, ridges, etc.), travertine bridges also facevarious natural and anthropogenic threats. These accumulated forms in the Diyadin Geothermal Area (DGA) should be protected as a karst geoheritage and the area should be declared as a geopark area.

  • Diyadin

  • Geoheritage

  • Murat river

  • natural bridge

  • travertine

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  • Aylar, F., Gürgöze, S., Uzun,A. ve Zeybek, H. İ. (2022). Yerköprü Doğal Tüneli nin Jeomorfolojisi ve Turizm Potansiyeli Vezirköprü Samsun. Coğrafya Dergisi, 44, 1–15, https://doi.org/10.26650/ JGEOG2022-981930

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  • Mesci, B. L., Gürsoy, H., Tatar, O., Ghaleb, B., Sürmeli, H. E. ve Ekizoğlu, Ö. (2017b). Farklı Tektonik Rejimlerin KontrolüAltında OluşanTravertenlerin Morfolojik Özellikleri: Diyadin (Ağrı), Reşadiye (Tokat) ve Yenice (Denizli) Travertenleri. Uluslararası Jeomorfoloji Sempozyumu 2017 (UJES-2017) Bildiriler Kitabı, (s. 352), Elâzığ.

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  • Pasvanoğlu, S. & Güler, S. (2010). Hydrogeological and Geothermal Features of Hot and Mineralized Waters of the Ağri-Diyadin (Turkey). Proceedings World Geothermal Congress 2010,Bali,Indonesia, 25-29 April 2010.

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  • Petrovic, D. (1969). Prilog poznavanju geneze prerasti. Globus, I, 42-46, Beograd

  • Petrovic, A. S. & Carevic, İ. (2015). Geological Influence on the Formation of Samar Natural Bridge and Collapse Valley of Ravna River from the Ne Kucaj Mountains (Carpatho-Balkanides, Eastern Serbia). Acta Carsologica 44(1), 37-46. https://doi.org/10.3986/ac.v44i1.898

  • Polat, S. (2011a). Kayadelen Karstik Tüneli. Marmara Coğrafya Dergisi, 24, 150–168. https://dergipark. org.tr/tr/download/article-file/3257

  • Polat, S. (2011b). Türkiye’de traverten oluşumu, yayılış alanı ve korunması. Marmara Coğrafya Dergisi, 23, 389-428. https://dergipark.org.tr/tr/download/ article-file/3249

  • Polat, S. (2018). Pınarbaşı Kayseri Civarında Bol Debili Kaynaklar. 1.Pınarbaşı (Aziziye) Sempozyumu, 10-12 Mayıs 2018, Kayseri.

  • Polat, S. ve Deniz, M. (2017). Taşyaran (İmren) Vadisinde Yatak Çukurları ve Turizm Potansiyeli (Uşak). Marmara Coğrafya Dergisi, 35, 204-217. https://doi.org/10.14781/mcd.291196

  • Polat, S. ve Ege, İ. (2018). Bolluk (Cihanbeyli) Traverten Konileri. Kriter Basım Yayın Dağıtım.

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  • Tekin, E. ve Ayyıldız, T. (2001). Sıcakçermik Jeotermal Alanındaki (Sivas KB, Türkiye) Güncel traverten Çökellerinin Petrografik Özellikleri. Türkiye Jeoloji Bülteni, 44(1), 1-13. https://www.jmo.org. tr/resimler/ekler/e6260b81898beac_ek.pdf

  • Toker, E. (2017). Quaternary fluvials tufas of Sarıkavak area, southwestern Turkey: Facies and depositional systems. Quaternary International, 437(Part A), 37-50. https://doi.org/10.1016/j. quaint.2016.06.034

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  • Zaman, M., Polat, S. ve Özdemir, M. (2000). Diyadin Kaplıcaları. Doğu Coğrafya Dergisi, 6(4), 349– 378, https://dergipark.org.tr/tr/download/articlefile/26792

  • Zentmyer, R, Myrow, P.M. & Newell D. L. (2008). Travertine deposits from along the South Tibetan Fault System near Nyalam, Tibet. Geological Magazine, 145(6), 753-765, https://doi. org/10.1017/S0016756808005323

  • Zeybek, H. İ. (2004). Delikkaya Natural Bridge (Tokat). International Symposium on Earth System (pp. 105-110), İstanbul.

  • Zeybek, H. İ., Uzun, A., Yılmaz, C., Bahadır, M., Hatipoğlu, İ. K., Dinçer, H. ve Gürgöze, S. (2015). Yıldız Doğal Köprüsü, Yıldızeli-Sivas. IV. Ulusal Jeomorfoloji Sempozyumu (UJES-2015) (s. 559- 563), Samsun.










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  • Examining the Geological and Mineralogical Availability of the Mineral Painite, One of the Most Valuable Gemstones in the World; Is there Painite in Türkiye?
    Murat Hatipoğlu Gürsel Yanik Evrim Çoban
    PDF Olarak Görüntüle

    Abstract: Although more than 4.000 minerals discovered in the world to date, some of them are very valuable interms of collection because they are very rare in nature. One of the rarest and most valuable minerals in the world ispainite [CaZrB(Al9O18)]. After its discovery in Myanmar (Burma) in southeast Asia in the 1950s, research has beenconstantly carried out on the possibility of this rare collectible and jewelry stone being found in other countries dueto its very high value. The main purpose of this study is to reveal the mineralogical and gemological properties of themineral painite can be searched for and found in Türkiye. It is known that painites are geologically formed and foundin skarn belts at the contacts of leucogranite of magmatic origin and marbles of metamorphic origin. As a result, ifpainite is to be sought in Türkiye and evaluated as a gemstone; the percentage amounts of the elements Ca, Zr and Bmust be taken in consideration as well as corundum, spinel, etc. in the geochemical composition of this mineral. It should be searched in geological environments of minerals; in particular, metamorphism contacts (skarn belts) and/  their alluviums should be investigated at the contact between igneous rocks and carbonate rocks.

  • Painite

  • ruby

  • rarest gems

  • gemological characteristics

  • Armbruster, T., Dobelin, N., Peretti, A., Gunther, D., Reusser, E. & Grobety, B. (2004). The crystal structure of painite CaZrB[Al9 O18] revisited. American Mineralogist, 89, 610-613. https://doi. org/10.2138/am-2004-0415

  • Ay, A.M., Hatipoğlu, M., Günel, H., Kılınçarslan, S. ve Velioğlu, T. (2013). Doğanşehir (Malatya) yakut oluşumlarının yayılımının tespiti ve oluşum kökenine ait yaklaşımlar [Determination of ruby formation and approaches to the origin in Doğanşehir (Malatya)]. 66.. Türkiye Jeoloji Kurultayı (1-5 Nisan), Ankara, 222-223.

  • Berry, L.G., Mason, B. & Dietrich, R.V. (1983). Mineralogy, 2nd Ed. W.H. Freeman and Co. USA.

  • Claringbull-Gordon, F., Hey M. H. & Payne, C. J. (1957). Painite, a new mineral from Mogok, Burma. Mineralogical Magazine, 31, 42-425. https://doi.org/10.1180/minmag.1957.031.236.11

  • Hatipoğlu, M., Türk, N., Chamberlain, S. C. & Akgün, A. M. (2010). Gem-quality transparent diaspore (zultanite) in bauxite deposits of the İlbir Mountains, Menderes Massif, SW Turkey. Mineralium Deposita, 45(2), 201-205. https://doi. org/10.1007/s00126-009-0262-2

  • Hatipoğlu. M. (2011). Al(Fe,Ti,Si)-mobility and secondary mineralization implications: A case study of the karst unconformity diasporite-type bauxite horizons in Milas (Muğla). Journal of African Earth Sciences, 60(3), 175-195. https:// doi.org/101016/J.Jafrearsci.2011.02.009

  • Hatipoğlu. M. & Çoban, E. (2021). Gem-quality blue sapphires (Al2 O3 -corundum variety) from the Milas-Yatağan region, Muğla, Turkey. Academia Letters, Article 4085, 1-5. https://doi. org/10.20935/AL4085

  • Hatipoğlu, M., Çoban, E., Çil, V., Babalık, H. ve Güney, H. (2022). Türkiye’nin süstaşı kalitesindeki korundum (Al2 O3 ) mineral (mavi safir) yatağı; Oluşumları ve Gemolojiksel özellikleri [Gem quality corundum (Al2 O3 ) mineral (blue sapphire) deposit from Turkey; Their formation and gemological characteristics]. International Black Sea Modern Scientific Research Congress Full Text Book (s. 46-56), (September 29,-October 02) Rize-Türkiye.

  • Hatipoğlu, M. & Çoban, E. (2023). Painite [CaZrB(Al9 O18)] crystal, one of the rarest and popular gemstones in the world; in the case of legends about its presence in Türkiye, mineralogical properties, similar stones that can be mixed and scientific approaches. 2nd International İzmi̇r Congress (October 14-16) on Life, Engineering, and Applied Sciences Proceedings Book (p.:16). İzmir, Türkiye.

  • Hollabaugh, C.L. & Foit, F. F. (1984). The crystal structure of an Al-rich titanite from Grisons, Switzerland. Amerikan Mineralogist, 69(7-8), 725-732. database_code_amcsd 0000942

  • Kaydu-Akbudak, İ., Gürbüz, M., Başıbüyük, Z., Hatipoğlu, M., Öztüfekçi-Önal, A. & İşler, F. (2021). Mineralogical and gemological characteristics of metaophiolite hosted corundum (Malatya-Türkiye). Sakarya University Journal of Science, 25(2), 1-9. https://doi.org/10.16984/ saufenbilder.644002

  • Krauskopf, K.B.(1982).Introduction to Geochemistry., International Student Edition. Mc Graw-Hill Book Co.

  • Lafuente B, Downs R T, Yang H & Stone N. (2015). The power of databases: the RRUFF project. In T. Armbruster & R. M. Danisi (Eds.), Highlights in Mineralogical Crystallography (p.: 1-3). Berlin, Germany, W. De Gruyter, pp 1-3.

  • MacFall, R. P. (1969). Gem Hunter’s Guide – Handbook fort the Amateur Collector (Find and Identify Gem Minerals, Includes a Complete Directory of the Best Hunting Localities), Reprint Edition. Thomas Y. Crowell Co.

  • Moore, P. B. & Araki, T. (1976). Painite, CaZrB[Al9 O18]: Its crystal structure and relation to jeremejevite, B5 [X3 Al6 (OH)3 O15], and fluoborite, B3 [Mg9 (F,OH)9 O9 ]. American Mineralogist, 61(1- 2), 88-94.

  • Shigley. J. E., Kampf, A. R. & Rossman, G. R. (1986). New data on painite. Mineralogical Magazine, 50, 267-270. https://doi.org/10.1180/ minmag.1986.050.356.09

  • Peretti, A. (2003). New findings of painite. Contributions to Gemology, 2, 19-20.

  • Tsirelson, V., Antipin, M., Gerr, R., Ozerov, R. & Struchkov, Y. (1985). Ruby structure peculiarities derived from X-ray data. Localization of chromium atoms and electron deformation density, Physica Status Solidi A87, 425-433, database_ code_amcsd 0015110. https://doi.org/10.1002/ pssa.2210870204

  • Warr, L.N. (2021). IMA-CNMNC approved mineral symbols. Mineralogical Magazine, 85(3), 291- 320. https://doi.org/10.1180/mgm.2021.43

  • Webster, R. (1994). Gems, Their Sources, Descriptions and Identification. Butterworths, Sevenoaks, UK, 1027s. Wyckoff R.

  • Wyckoff, G. (1963). Crystal Structures 1, Second edition. Interscience Publishers, (p. 239-444) New York, New York, _database_code_amcsd 0011762

  • URL 1, (2023). Painite, http://minerals.gps.caltech. edu/files/visible/painite/Wetloo_Mine-915.jpg

  • URL 2, (2023). Painite, https://geologyscience.com/ gemstone/painite/#jp-carousel-11364

  • URL 3, (2023). Painite, www.mindat.org

  • URL 4, (2023). Painite, www.webmineral.com

  • URL 5, (2023). Painite, www.gemdat.org

  • URL 6, (2023). GoogleEarth, https://earth.google.com/ web/@0,-3.2872998,0a,22251752.77375655d,35 y,0h,0t,0r/data=OgMKATA

  • Yeniyol, M. (2010). Teknik Mineraloji ve Petrografi (Szymanski, Andrzey’den çeviri). İstanbul Üniversitesi Yayın No: 4910.










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  • Stratigraphic Importance of Permian-Triassic Limestones in Karakaya Complex Outcropped Around Kaşağil Village (İvrindi, Balıkesir)
    Nagihan Çağlar Ali Murat Kiliç
    PDF Olarak Görüntüle

    Abstract: The Karakaya Complex consists of four different tectonostratigraphic units of similar age and reflects different tectonic and basin conditions. These units are Nilüfer, Hodul, Orhanlar Greywacke and Çal. unit. The Nilüfer unit consists mostly of metabasite and metasandstone with a small amount of quartz calcschists and marble overlying them. The Hodul unit, the most common unit in the Karakaya Complex, consists of light grey-white feldspar sandstone and dark grey-black shale siltstones. It is possibly a member of the Kaşal Limestone deposited ina narrow, intermittent area on a muddy sea floor in the form of lens-like ground reef dunes / benches. The Orhanlar Greywacke is composed of limestone and lesser spilite blocks, monotonous grey wacke and shale matrix within the Karakaya Complex. The Çal unit consists of pelagic limestone and burgundy-brown coloured radiolarites, mudstone levels and wide spread limestone olistoliths. In this study, the biostratigraphy of a Kaşal Limestone Member of the Hodul Unit of Karakaya Complex has been examined in SW İvrindi (Balıkesir). The geology of Kaşağıl Village, which is located 15 km SW of İvrindi, is characterized by a clastic matrix and Permian-Upper Triassic limestone blocks. Permo-Triassic foraminifers were obtained from the samples collected from the studied area and macrofossils were obtained such as ammonite, brachiopod fragments, crinoid, echinoid and gastropod fragments. Involutina ? jurassica JONES form was obtained from the strata forming the youngest levels in the measured stratigraphic sections.

  • Balıkesir

  • Karakaya

  • Kaşağıl Village

  • Kaşal Limestone

  • Permo-Triassic

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