Freymark, J. ; Sippel, J. ; Scheck-Wenderoth, M. ; Bär, K. ; Fritsche, J.-G. ; Kracht, M. ; Stiller, M. (2015)
Temperature Predictions for the Northern Upper Rhine Graben and Hessen (Germany) – a lithosphere-scale 3D modelling approach.
6th European Geothermal PhD Day. Delft (25.02.2015-27.02.2015)
Konferenzveröffentlichung, Bibliographie
Kurzbeschreibung (Abstract)
The Upper Rhine Graben and its northern prolongation, the Hessian depression, were formed as part of the European Cenozoic Rift System in a complex extensional to transtensional setting. At present-day, the Upper Rhine Graben is one of the regions in Germany that are well suitable for deep geothermal exploitation. As part of the EU-funded project “IMAGE” (Integrated Methods for Advanced Geothermal Exploration), we aim to contribute to the development of an integrated and multidisciplinary approach for the exploration of geothermal reservoirs by understanding the processes and properties controlling the spatial distribution of key parameters such as temperature in the subsurface. Typically, numerical models are developed for predictions on the hydrothermal conditions and for reducing the risk of drilling non-productive geothermal wells. One major problem related to such reservoir-scale models is setting appropriate boundary conditions that define, for instance, how much heat enters the reservoir from greater depths. To understand the deep thermal field of the northern Upper Rhine Graben in the federal state of Hessen, we first develop a 3D structural model that differentiates the main geological units of the lithosphere including the shallow sedimentary basin fill. This model allows to solve the steady-state conductive heat equation and understand the first-order controlling factors of the regional thermal field. We present the database (e.g. seismic reflection data) and the methodological workflow (involving, e.g., 3D gravity modelling) that were used to develop the lithospheric-scale 3D structural model. Furthermore, we show how certain features of the structural model such as thickness variations of the radiogenic-heat-producing crystalline crust control the temperature distribution in the subsurface.
| Typ des Eintrags: | Konferenzveröffentlichung |
|---|---|
| Erschienen: | 2015 |
| Autor(en): | Freymark, J. ; Sippel, J. ; Scheck-Wenderoth, M. ; Bär, K. ; Fritsche, J.-G. ; Kracht, M. ; Stiller, M. |
| Art des Eintrags: | Bibliographie |
| Titel: | Temperature Predictions for the Northern Upper Rhine Graben and Hessen (Germany) – a lithosphere-scale 3D modelling approach |
| Sprache: | Englisch |
| Publikationsjahr: | 12 November 2015 |
| Veranstaltungstitel: | 6th European Geothermal PhD Day |
| Veranstaltungsort: | Delft |
| Veranstaltungsdatum: | 25.02.2015-27.02.2015 |
| Kurzbeschreibung (Abstract): | The Upper Rhine Graben and its northern prolongation, the Hessian depression, were formed as part of the European Cenozoic Rift System in a complex extensional to transtensional setting. At present-day, the Upper Rhine Graben is one of the regions in Germany that are well suitable for deep geothermal exploitation. As part of the EU-funded project “IMAGE” (Integrated Methods for Advanced Geothermal Exploration), we aim to contribute to the development of an integrated and multidisciplinary approach for the exploration of geothermal reservoirs by understanding the processes and properties controlling the spatial distribution of key parameters such as temperature in the subsurface. Typically, numerical models are developed for predictions on the hydrothermal conditions and for reducing the risk of drilling non-productive geothermal wells. One major problem related to such reservoir-scale models is setting appropriate boundary conditions that define, for instance, how much heat enters the reservoir from greater depths. To understand the deep thermal field of the northern Upper Rhine Graben in the federal state of Hessen, we first develop a 3D structural model that differentiates the main geological units of the lithosphere including the shallow sedimentary basin fill. This model allows to solve the steady-state conductive heat equation and understand the first-order controlling factors of the regional thermal field. We present the database (e.g. seismic reflection data) and the methodological workflow (involving, e.g., 3D gravity modelling) that were used to develop the lithospheric-scale 3D structural model. Furthermore, we show how certain features of the structural model such as thickness variations of the radiogenic-heat-producing crystalline crust control the temperature distribution in the subsurface. |
| Fachbereich(e)/-gebiet(e): | 11 Fachbereich Material- und Geowissenschaften > Geowissenschaften > Fachgebiet Angewandte Geothermie 11 Fachbereich Material- und Geowissenschaften > Geowissenschaften 11 Fachbereich Material- und Geowissenschaften |
| Hinterlegungsdatum: | 12 Nov 2015 13:40 |
| Letzte Änderung: | 12 Nov 2015 13:40 |
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