Mesozoic Resource Potential in the Southern Permian Basin
CONTAINS OPEN ACCESS

The Southern Permian Basin, as its name suggests, is a historical heartland for hydrocarbon production from the Palaeozoic Rotliegend interval. However, in this mature basin the Mesozoic presents further possibilities to offer resource security to NW Europe. Such opportunities include increasing efficiency in the production of discovered hydrocarbons, exploration for further hydrocarbons (both conventional and unconventional) and efficient exploration for, and production of, geothermal energy. All these potential resources require a grounding in technically sound geoscience, via traditional scientific observation and the application of new technologies, to unlock their value.
The main aim of this volume is to bring together the work of academics and industry workers to consider cross-border geoscience including contributions on Poland, Germany, The Netherlands, the United Kingdom and adjacent areas. The work presented intends to contribute to the development and discovery of further Mesozoic energy resources across the basin.
Tectonic control on the Early Cretaceous Bentheim Sandstone sediments in the Schoonebeek oil field, The Netherlands
Correspondence: [email protected]
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Published:January 01, 2018
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CiteCitation
Geert-Jan Vis, Willem D. Smoor, Kees W. Rutten, Jan de Jager, Harmen F. Mijnlieff, 2018. "Tectonic control on the Early Cretaceous Bentheim Sandstone sediments in the Schoonebeek oil field, The Netherlands", Mesozoic Resource Potential in the Southern Permian Basin, B. Kilhams, P. A. Kukla, S. Mazur, T. McKie, H. F. Mijnlieff, K. van Ojik
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Abstract
The reservoir rock of the Schoonebeek oil field is formed by the sandstones of the Bentheim Sandstone Member. The sedimentology and depositional environment of this sandstone have been extensively studied, but the relationship between the geometry of the sandstone and tectonic activity in the Schoonebeek area remains poorly understood. 355 boreholes and two three-dimensional (3D) seismic surveys were used to study this relationship. An eroded zone in the west of the field and an area where the original depositional thickness is still intact were identified. Using the ezValidator software package it can be seen that uplift of a local anticline played an important role in the erosion of the sandstone. Deposition of the sands of the Bentheim Sandstone Member and the overlying Vlieland Sandstone and Claystone formations occurred on an unstable changing palaeotopography, whereby the instability was probably driven by halokinetic movement of the underlying Late Permian Zechstein salt. Syndepositional tectonic movements affected local thickness variations in the Bentheim Sandstone Member in the west of the field, leading to westwards thinning.
- Albian
- boreholes
- Cenozoic
- controls
- correlation
- Cretaceous
- data bases
- data processing
- Europe
- geophysical methods
- geophysical profiles
- geophysical surveys
- Hauterivian
- lithostratigraphy
- Lower Cretaceous
- Mesozoic
- Netherlands
- oil and gas fields
- paleogeography
- reconstruction
- reservoir rocks
- sediments
- seismic methods
- seismic profiles
- structural controls
- succession
- surveys
- tectonics
- tectonostratigraphic units
- thickness
- unconformities
- Upper Cretaceous
- Valanginian
- Western Europe
- Schoonebeek Field
- Bentheim Sandstone Member