MINIMAL GEOLOGICAL DATA FOR MODELLING COMPLEX HYDROGEOLOGICAL SYSTEM USING GIS

Authors

  • Janmaizatulriah Jani Universiti Teknologi MARA (UiTM), 40450 Shah Alam, Selangor Darul Ehsan, Malaysia
  • David N. Lerner University of Sheffield, United Kingdom
  • Steve Wise University of Sheffield, United Kingdom

DOI:

https://doi.org/10.11113/jt.v78.8483

Keywords:

Geological model, groundwater model, GIS, aquifer

Abstract

Geological model is part of groundwater modelling processes. 3D geological models such as GSI3D and GOCAD are used extensively for modelling subsurface geology. These models require multiple input datasets from boreholes, geology maps, and geophysical data. However, due to insufficient definitive data, widely spaced data points that are interpolated were usually used for representation of a geological unit. Since the requirement of extensive data is always the main issue, a geological model is only applied for an area with sufficient data. In this study, minimal and accessible spatial datasets were used in the model for representation of the geological unit. These datasets were chosen to allow the model to be applied in areas of limited datasets. Via the GIS platform, the methodology was developed for the representation of geology in particular the aquifer unit. The raster surface of the geological layer was created in GIS using the information of dip, strike and faults displacement taken from the geological map. The developed GIS based geological model is capable of viewing a geological cross section, modelling the thickness and outcrop boundary of an aquifer unit. The model was tested by reconstruction of the geology map for the Slea catchment, in the United Kingdom and prediction of the thickness of the Lincolnshire Limestone aquifer. 

References

Turner, A. K. 2006. Challenges And Trends For Geological Modelling And Visualisation. Bulletin of Engineering Geology and the Environment. 65: 109-127.

Robins, N. S., Rutter, H. K., Dumpleton, S. & Peach, D. W. 2005. The Role Of 3D Visualisation As An Analytical Tool Preparatory To Numerical Modelling. Journal of Hydrology. 301: 287-295.

Butscher, C. & Huggenberger, P. 2007. Implications For Karst Hydrology From 3D Geological Modelling Using The Aquifer Base Gradient Approach. Journal of Hydrology. 342: 184-198.

Lelliott, M. R., Cave, M. R. & Wealthall, G. R. 2009. A Structured Approach To The Measurement Of Uncertainty In 3D Geological Models. Quarterly Journal of Engineering Geology and Hydrogeology. 42: 95-105.

Bradbury, C. G. & Rushton, K. R. 1998. Estimating Runoff-Recharge In The Southern Lincolnshire Limestone Catchment, UK. Journal of Hydrology. 21: 86-99.

Greswell, R., Yoshida, K., Tellam, J. H. & Lloyd, J. W. 1998. The Micro-Scale Hydrogeological Properties Of The Lincolnshire Limestone, UK. Quarterly Journal of Engineering Geology and Hydrogeology. 31: 181-197.

Adrian, R. A., Lloyd, J. W. & Marcus Marsh, J. 1976. Hydrochemistry And Ground-Water Mixing In Part Of The Lincolnshire Limestone Aquifer, England. Ground Water, 14(5): 320-327.

Downing, R. A. & Williams, B. P. J. 1969. The Groundwater Hydrology Of The Lincolnshire Limestone: With Special Reference To The Groundwater Resources. Water Resource Board. Reading.

Rusthon, K. R. & Tomlinson, L. M. 1999. Total Catchment Conditions In Relation To the Lincolnshire Limestone In South Lincolnshire. Quarterly Journal of Engineering Geology and Hydrogeology. 32: 233-246.

Smith, E. J. 1979. Spring Discharge In Relation To Rapid Fissure Flow. Ground Water. 17(4): 346-350.

Lovett, A. A., Hiscock, K. M., Dockerty, T. L., Saich, A., Sandhu, C., Johnson, P. A., Sunnenberg, G. & Appleton, K. J. 2006. Assessing Land-Use Scenarios To Improve Groundwater Quality: A Slea Catchment Study. Environmental Agency Science Report – SC030126/SR.

Hiscock, K., Lovett, A. Saich, A. Dockerty, T., Johnson, P., Sandhu, C., Sunnenberg, G., Appleton, K., Harris, B. & Greaves, J. 2007. Modelling Land-Use Scenarios To Reduce Groundwater Nitrate Pollution: The European Water4ALL Project. Quarterly Journal of Engineering Geology and Hydrogeology. 40: 417-434.

Bottrell, S. H., Moncaster, S. J., Tellam, J. H., Lloyd, J. W., Fisher, Q. J. & Newton, R. J. 2000. Controls On Bacterial Sulfate Reduction In Dual Porosity Aquifer Systems: The Lincolnshire Limestone Aquifer, England. Chemical Geology. 169: 461-470.

Johnson, D. Rushton, K.R., Tomlinson, L. M. 1999. The Effect Of Borehole Sealing On The Southern Lincolnshire Limestone Catchment. J.CIWEM. 13: 37-46.

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Published

2016-05-08

How to Cite

MINIMAL GEOLOGICAL DATA FOR MODELLING COMPLEX HYDROGEOLOGICAL SYSTEM USING GIS. (2016). Jurnal Teknologi (Sciences & Engineering), 78(5-2). https://doi.org/10.11113/jt.v78.8483