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The influence of geological fractures on karstic sinkhole development in eastern areas of Centurion, South Africa

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Abstract

Centurion is a fast developing area facing severe karstic sinkhole development. The area is predominantly underlain by fractured dolomite formations that include Oaktree, Monte Christo, Lyttelton, and Eccles of the Malmani Dolomite Group (~ 2600 and ~ 2500 Ma). Fractures of the underlying dolomite formations were investigated as one of the most influencing factors in karstic sinkhole formation using fieldwork mapping, petrology, and remote-sensing techniques (automated lineament extraction methods). Fieldwork results indicate that the study area has two prevalent fracture orientations trending N–S and ENE–WSW with average orientations of 178°/86° E and 073°/67° N. The fieldwork mapping results coincide with those acquired using remote-sensing techniques by automated extraction of lineaments from colour-shaded image and from four Sobel directional filtered images. Remote-sensing techniques indicate that there are extra two prevalent lineament directions; NE–SW and E–W in the study area and majority of the sinkholes develop in areas with high lineament density. Eccles, Monte Christo, and Oaktree dolomite formations exhibit a unidirectional fracture system while Lyttelton dolomite formation exhibit bidirectional fracture system. It is, therefore, concluded that (1) geological lineaments extracted using remote sensing and fractures present in the underlying dolomite formations play a significant role in controlling fluid circulation and thus influencing karstic processes such as dissolution, and therefore, (2) sinkhole development is primarily structurally controlled; however, it is exacerbated by anthropogenic activities due to the influence of water ingress.

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Acknowledgements

This study was funded by the Council for Geoscience (CGS) through the CGS Full Time Bursary for honours and the National Research Foundation (NRF). The authors are grateful to the CGS and Tshwane Municipality for the data and expert assistance that was made available to make this research a success. Thanks to Mr Sakhile Mkhize for his valuable contribution in arranging and revising the manuscript. Last but not least, thanks to the Wits School of Geoscience staff members for their assistance and support.

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  1. School of Geosciences, University of the Witwatersrand, Johannesburg, South Africa

    Anna Keneilwe Montjane, Asinne Tshibubudze & Tsehaie Woldai

  2. Council for Geoscience, Pretoria, South Africa

    Lindy Heath

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  1. Anna Keneilwe Montjane
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Correspondence to Anna Keneilwe Montjane.

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Montjane, A.K., Tshibubudze, A., Woldai, T. et al. The influence of geological fractures on karstic sinkhole development in eastern areas of Centurion, South Africa. Environ Earth Sci 79, 488 (2020). https://doi.org/10.1007/s12665-020-09234-6

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