Geothermal structure of the eastern Black Sea basin and the eastern Pontides orogenic belt: Implications for subduction polarity of Tethys oceanic lithosphere

The numerical results of thermal modeling studies indicate that the lithosphere is cold and strong beneath the Black Sea basin. The thermal lithospheric thickness increases southward from the eastern Pontides orogenic belt (49.4 km) to Black Sea basin (152.2 km). The Moho temperature increases from...

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Main Author: Nafiz Maden
Format: Article
Language:English
Published: Elsevier 2013-07-01
Series:Geoscience Frontiers
Subjects:
Online Access:http://www.sciencedirect.com/science/article/pii/S1674987113000261
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spelling doaj-07851803481046ff8a8a06558044b21c2020-11-24T21:31:40ZengElsevierGeoscience Frontiers1674-98712013-07-014438939810.1016/j.gsf.2013.02.001Geothermal structure of the eastern Black Sea basin and the eastern Pontides orogenic belt: Implications for subduction polarity of Tethys oceanic lithosphereNafiz MadenThe numerical results of thermal modeling studies indicate that the lithosphere is cold and strong beneath the Black Sea basin. The thermal lithospheric thickness increases southward from the eastern Pontides orogenic belt (49.4 km) to Black Sea basin (152.2 km). The Moho temperature increases from 367 °C in the trench to 978 °C in the arc region. The heat flow values for the Moho surface change between 16.4 mW m−2 in the Black Sea basin and 56.9 mW m−2 in the eastern Pontides orogenic belt. Along the southern Black Sea coast, the trench region has a relatively low geothermal potential with respect to the arc and back-arc region. The numerical studies support the existence of southward subduction beneath the Pontides during the late Mesozoic–Cenozoic.http://www.sciencedirect.com/science/article/pii/S1674987113000261Eastern Black Sea basinEastern PontidesHeat flowLithospheric thicknessGeodynamic evolutionSubduction polarity
collection DOAJ
language English
format Article
sources DOAJ
author Nafiz Maden
spellingShingle Nafiz Maden
Geothermal structure of the eastern Black Sea basin and the eastern Pontides orogenic belt: Implications for subduction polarity of Tethys oceanic lithosphere
Geoscience Frontiers
Eastern Black Sea basin
Eastern Pontides
Heat flow
Lithospheric thickness
Geodynamic evolution
Subduction polarity
author_facet Nafiz Maden
author_sort Nafiz Maden
title Geothermal structure of the eastern Black Sea basin and the eastern Pontides orogenic belt: Implications for subduction polarity of Tethys oceanic lithosphere
title_short Geothermal structure of the eastern Black Sea basin and the eastern Pontides orogenic belt: Implications for subduction polarity of Tethys oceanic lithosphere
title_full Geothermal structure of the eastern Black Sea basin and the eastern Pontides orogenic belt: Implications for subduction polarity of Tethys oceanic lithosphere
title_fullStr Geothermal structure of the eastern Black Sea basin and the eastern Pontides orogenic belt: Implications for subduction polarity of Tethys oceanic lithosphere
title_full_unstemmed Geothermal structure of the eastern Black Sea basin and the eastern Pontides orogenic belt: Implications for subduction polarity of Tethys oceanic lithosphere
title_sort geothermal structure of the eastern black sea basin and the eastern pontides orogenic belt: implications for subduction polarity of tethys oceanic lithosphere
publisher Elsevier
series Geoscience Frontiers
issn 1674-9871
publishDate 2013-07-01
description The numerical results of thermal modeling studies indicate that the lithosphere is cold and strong beneath the Black Sea basin. The thermal lithospheric thickness increases southward from the eastern Pontides orogenic belt (49.4 km) to Black Sea basin (152.2 km). The Moho temperature increases from 367 °C in the trench to 978 °C in the arc region. The heat flow values for the Moho surface change between 16.4 mW m−2 in the Black Sea basin and 56.9 mW m−2 in the eastern Pontides orogenic belt. Along the southern Black Sea coast, the trench region has a relatively low geothermal potential with respect to the arc and back-arc region. The numerical studies support the existence of southward subduction beneath the Pontides during the late Mesozoic–Cenozoic.
topic Eastern Black Sea basin
Eastern Pontides
Heat flow
Lithospheric thickness
Geodynamic evolution
Subduction polarity
url http://www.sciencedirect.com/science/article/pii/S1674987113000261
work_keys_str_mv AT nafizmaden geothermalstructureoftheeasternblackseabasinandtheeasternpontidesorogenicbeltimplicationsforsubductionpolarityoftethysoceaniclithosphere
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