Geochemistry and Petrogenesis of Intracontinental Basaltic Volcanism on the Northwest Arabian Plate, Gaziantep Basin, Southeast Anatolia, Turkey
Corresponding Author
Sevcan KÜRÜM
Department of Geological Engineering, University of Fırat, 23110 Elazığ Turkey
Corresponding author. E-mail: [email protected]Search for more papers by this authorAbdurrahman BÖLÜCÜ
Institute of Science and Technology, University of Fırat, 23110 Elazığ Turkey
Search for more papers by this authorMelek URAL
Department of Geological Engineering, University of Fırat, 23110 Elazığ Turkey
Search for more papers by this authorCorresponding Author
Sevcan KÜRÜM
Department of Geological Engineering, University of Fırat, 23110 Elazığ Turkey
Corresponding author. E-mail: [email protected]Search for more papers by this authorAbdurrahman BÖLÜCÜ
Institute of Science and Technology, University of Fırat, 23110 Elazığ Turkey
Search for more papers by this authorMelek URAL
Department of Geological Engineering, University of Fırat, 23110 Elazığ Turkey
Search for more papers by this authorAbout the first author:
KÜRÜM Sevcan; female, born in 1962 in Elazığ city, Turkey; she is now associate professor at Fırat University, Turkey. Email: [email protected]; phone: 0905327129070
Abstract
Volcanism along the northwest boundary of the Arabian Plate found in the Gaziantep Basin, southeast Turkey, is of Miocene age and is of alkaline and calc-alkaline basic composition. The rare earth element data for both compositional series indicates spinel–peridotite source areas. The rare earth and trace elements of the alkaline lavas originate from a highly primitive and slightly contaminated asthenospheric mantle; those of the calc-alkaline lavas originate from a highly heterogeneous, asthenospheric, and lithospheric mantle source. Partial melting and magmatic differentiation processes played a role in the formation of the petrological features of these volcanics. These rocks form two groups on the basis of their 87Sr/86Sr and 143Nd/144Nd isotopic compositions in addition to their classifications based on their chemical compositions (alkaline and calc-alkaline). These isotopic differences indicate a dissimilar parental magma. Therefore, high Nd isotope samples imply a previously formed and highly primitive mantle whereas low Nd isotope samples may indicate comparable partial melting of an enriched heterogeneous shallow mantle. Other isotopic changes that do not conform to the chemical features of these lavas are partly related to the various tectonic events of the region, such as the Dead Sea Fault System and the Bitlis Suture Zone.
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