Modelling the thermal evolution of extensional basins through lithosphere stretching factors: application to the NW part of the Pannonian Basin

<p>The reconstruction of thermal evolution in sedimentary basins is a key input for constraining geodynamic processes and geo-energy resource potential. We present a methodology to reproduce the most important transient thermal footprints accompanying basin formation: lithosphere extension and...

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Main Authors: E. Békési, J.-D. van Wees, K. Porkoláb, M. Hencz, M. Berkesi
Format: Article
Language:English
Published: Copernicus Publications 2025-01-01
Series:Solid Earth
Online Access:https://se.copernicus.org/articles/16/45/2025/se-16-45-2025.pdf
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author E. Békési
J.-D. van Wees
J.-D. van Wees
K. Porkoláb
M. Hencz
M. Berkesi
author_facet E. Békési
J.-D. van Wees
J.-D. van Wees
K. Porkoláb
M. Hencz
M. Berkesi
author_sort E. Békési
collection DOAJ
description <p>The reconstruction of thermal evolution in sedimentary basins is a key input for constraining geodynamic processes and geo-energy resource potential. We present a methodology to reproduce the most important transient thermal footprints accompanying basin formation: lithosphere extension and sedimentation. The forward model solving the transient heat equation is extended with an inversion workflow to constrain models with temperature measurement, providing estimates on model parameters, most importantly the amount of lithosphere stretching. We apply the methodology to the NW part of Hungary. We test the effect of variations in model input parameters on the resulting temperature estimates and discuss the uncertainties and limitations of the modelling technique. Realistic past and present-day temperature predictions for the entire lithosphere are achieved for a carefully assessed set of input parameters, suggesting the strong attenuation of the mantle lithosphere through extension and relatively small variations in the present-day thermal lithosphere thickness. The new temperature model can be used to constrain geodynamic processes and lithosphere structure and rheology, and it can serve as a first-order boundary condition for geothermal exploration.</p>
format Article
id doaj-art-3bfea5906a424af3bd0ea267c198990f
institution Kabale University
issn 1869-9510
1869-9529
language English
publishDate 2025-01-01
publisher Copernicus Publications
record_format Article
series Solid Earth
spelling doaj-art-3bfea5906a424af3bd0ea267c198990f2025-01-22T08:30:17ZengCopernicus PublicationsSolid Earth1869-95101869-95292025-01-0116456110.5194/se-16-45-2025Modelling the thermal evolution of extensional basins through lithosphere stretching factors: application to the NW part of the Pannonian BasinE. Békési0J.-D. van Wees1J.-D. van Wees2K. Porkoláb3M. Hencz4M. Berkesi5MTA-EPSS FluidsByDepth Lendület (Momentum) Research Group, HUN-REN Institute of Earth Physics and Space Science, 9400 Sopron, HungaryTNO Utrecht, Utrecht 3584 CB, the NetherlandsDepartment of Earth Sciences, Utrecht University, Utrecht 3584 CB, the NetherlandsMTA-EPSS FluidsByDepth Lendület (Momentum) Research Group, HUN-REN Institute of Earth Physics and Space Science, 9400 Sopron, HungaryMTA-EPSS FluidsByDepth Lendület (Momentum) Research Group, HUN-REN Institute of Earth Physics and Space Science, 9400 Sopron, HungaryMTA-EPSS FluidsByDepth Lendület (Momentum) Research Group, HUN-REN Institute of Earth Physics and Space Science, 9400 Sopron, Hungary<p>The reconstruction of thermal evolution in sedimentary basins is a key input for constraining geodynamic processes and geo-energy resource potential. We present a methodology to reproduce the most important transient thermal footprints accompanying basin formation: lithosphere extension and sedimentation. The forward model solving the transient heat equation is extended with an inversion workflow to constrain models with temperature measurement, providing estimates on model parameters, most importantly the amount of lithosphere stretching. We apply the methodology to the NW part of Hungary. We test the effect of variations in model input parameters on the resulting temperature estimates and discuss the uncertainties and limitations of the modelling technique. Realistic past and present-day temperature predictions for the entire lithosphere are achieved for a carefully assessed set of input parameters, suggesting the strong attenuation of the mantle lithosphere through extension and relatively small variations in the present-day thermal lithosphere thickness. The new temperature model can be used to constrain geodynamic processes and lithosphere structure and rheology, and it can serve as a first-order boundary condition for geothermal exploration.</p>https://se.copernicus.org/articles/16/45/2025/se-16-45-2025.pdf
spellingShingle E. Békési
J.-D. van Wees
J.-D. van Wees
K. Porkoláb
M. Hencz
M. Berkesi
Modelling the thermal evolution of extensional basins through lithosphere stretching factors: application to the NW part of the Pannonian Basin
Solid Earth
title Modelling the thermal evolution of extensional basins through lithosphere stretching factors: application to the NW part of the Pannonian Basin
title_full Modelling the thermal evolution of extensional basins through lithosphere stretching factors: application to the NW part of the Pannonian Basin
title_fullStr Modelling the thermal evolution of extensional basins through lithosphere stretching factors: application to the NW part of the Pannonian Basin
title_full_unstemmed Modelling the thermal evolution of extensional basins through lithosphere stretching factors: application to the NW part of the Pannonian Basin
title_short Modelling the thermal evolution of extensional basins through lithosphere stretching factors: application to the NW part of the Pannonian Basin
title_sort modelling the thermal evolution of extensional basins through lithosphere stretching factors application to the nw part of the pannonian basin
url https://se.copernicus.org/articles/16/45/2025/se-16-45-2025.pdf
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