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Mineralogy, geochemistry, fluid inclusion, and stable sulfur isotope investigation of the Terziali shear-related orogenic gold deposit (Central Anatolia, Turkey): implications for ore genesis and mineral exploration

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Abstract

The Terziali gold mineralization is located within the Central Anatolian Crystalline Complex and represents one of the significant gold occurrences in central Turkey. This gold mineralization is emplaced along the Demirli Thrust Zone striking northwest-southeast with a southwest dip. The hanging wall of this thrust zone consists of Carboniferous metasedimentary rocks, whereas the footwall rocks is dominated by a Permian-aged marble. The metamorphic rocks are intruded by the upper Cretaceous-Paleocene Çayağzı syenite, and the mineralization is mainly hosted by breccia cements and clasts, and fine-grained grayish fracture fill quartz veins. This study reports new geochemical, mineralogical, fluid inclusion, and S stable isotope data from the Terziali gold mineralization in order to better understand its ore genesis. The mineralization is constituted of dravite, quartz, sericite/fuchsite, and carbonate in the proximal alteration zone, whereas the distal alteration zone in the Terziali is characterized by silicification along the thrust contact. The ore mineralogy is mainly composed of disseminated pyrite, Fe-oxides, and lesser amounts of chalcopyrite and arsenopyrite, and minor to trace gold. In relation to the first and second mineralization stages, the Terziali mineralization presents compatible homogenization temperatures (Th °C) range between 336–248 °C and 245–178 °C, and the mineralized fluids were observed over two phases of relatively low salinity and high salinity average: 2.2 and 21.8 wt% NaCl equ. with an average of 10.3 wt% NaCl equivalent, respectively. Further, the sulfur isotope δ34S compositions from the Terziali mineralization range from 5.6 to − 12.1‰ (mean value of − 8.8‰) and indicate the involvement of magmatic and sedimentary sourced solutions. The overall geochemical, mineralogical, and stable isotope data reported here indicate that the Terziali gold mineralization exhibits similar characteristics with shear-related orogenic gold deposits, and this finding can be also indicative for the presence of similar systems in Central Anatolia and the western Tethyan Belt.

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Fig. 1

modified from Okay and Tüysüz, 1999), B geological map showing plutonic and basement rocks and main structural units of the Central Anatolia region (simplified from 1/25 K geological map of Turkey (MTA) and the coordinates for Fig. 1A in latitude/longitude, Fig. 1B in UTM Zone 36 N) and simplified geological map of the Central Anatolian Crystalline Complex (modified from Aydın et al. 1998) (yellow points describe the location of the Terziali gold mineralization)

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taken from Shepherd et al. 1985)

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Acknowledgements

This research was partially supported by the Kocaeli University (Project number: 2016/018). We thank Asia Minor Mining Company and Cengiz Demirci, the former General Manager, for his excellent support during field work, and also for his permission to publish the data. Mesut Soylu and Mustafa Cihan, the former Exploration Managers of Asia Minor Mining Co., are appreciated for their valuable inputs, also deceased Exploration Manager Cameron Scott Rombach is greatly appreciated for his field work and valuable inputs. Vedat Toprak, Claire Chamberlain, İlker Şengüler, and Ahmet Karakaş are specially thanked for their rewarding discussions and inspiring ideas. The authors are thankful to Okay Çimen for their constructive suggestions and comments. The authors are grateful to Terziali project team: Ufuk Demirel, Burçin Özkan, Ilkay Çevik, Burcu Sahin, and Serkan Akbay.

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This study was partially funded by the Kocaeli University (Project number: 2016/018).

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Correspondence to Özgür Sapancı.

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Sapancı, Ö., Köprübaşı, N., Çiftçi, E. et al. Mineralogy, geochemistry, fluid inclusion, and stable sulfur isotope investigation of the Terziali shear-related orogenic gold deposit (Central Anatolia, Turkey): implications for ore genesis and mineral exploration. Arab J Geosci 15, 113 (2022). https://doi.org/10.1007/s12517-021-09425-w

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