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Evolution and structure of the Upper Rhine Graben: insights from three-dimensional thermomechanical modelling

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Abstract

The evolution and geometry of the Tertiary Upper Rhine Graben were controlled by a continually changing stress field and the reactivation of pre-existing crustal discontinuities. A period of WNW-ESE extension in the late Eocene and Oligocene was followed by lateral translation from the early Miocene onwards. This study utilizes 3D finite element techniques to simulate extension and lateral translation on a lithospheric scale. Brittle and creep behaviour of lithospheric rocks are represented by elastoplasticity and thermally activated power-law viscoplasticity, respectively. Contact elements allocated with cohesion and frictional coefficients are used to describe pre-existing zones of weakness in the elastic-brittle field. Our results suggest that (1) extension is accommodated along listric border faults to midcrustal depth of 15–16 km. Beneath, pure shear stretching occurs without a need for localized shear zones in lower crust and upper mantle. (2) Ductile flow at midcrustal depth across the graben accounts for the pronounced halfgraben morphology. Thereby, the shape of the border faults, their frictional coefficients, and sedimentary loads have profound effects on the rate of ductile flow across the graben. (3) Horizontal extension of 8–8.5 km and sinistral displacement across the rift of 3–4 km are needed to accommodate the observed sediment thickness.

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Acknowledgements

This paper is a contribution to the European Upper Rhine Graben Evolution and Neotectonics (EUCOR-URGENT) Project. Nina Kukowski and Charles Gumiaux are kindly thanked for their thorough and detailed reviews. The authors acknowledge financial support by the Deutsche Forschungsgemeinschaft.

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  1. Geologisches Institut, University of Freiburg, Germany

    Michael Schwarz & Andreas Henk

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Correspondence to Michael Schwarz.

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Schwarz, M., Henk, A. Evolution and structure of the Upper Rhine Graben: insights from three-dimensional thermomechanical modelling. Int J Earth Sci (Geol Rundsch) 94, 732–750 (2005). https://doi.org/10.1007/s00531-004-0451-2

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