MICROGRAVITY SURVEY IN THE AREA OF THE FORMER SHALLOW COAL MINING

Beres M., Luetscher M. & Olivier R. Integration of ground penetrating radar and microgravimetric methods to map shallow caves, Journal of Applied Geophysics, vol. 46, pp 249–262, 2001.

Blakely R. Potential Theory in Gravity and Magnetic Applications, Cambridge University Press, England, 1991.

Golebiowski T. 3D GPR measurements for fractures detection in selected post- mining regions in Poland, Proceedings of International Conference “Near Surface 2010”, EAEG Org., Zurich, Switzerland, 2010.

Grandjeana G. & Leparoux D. The potential of seismic methods for detecting cavities and buried objects: experimentation at a test site, Journal of Applied Geophysics, 56, iss. 2, pp 93-106.

Leucci G. Contribution of Ground Penetrating Radar and Electrical Resistivity Tomography to identify the cavity and fractures under the main Church in Botrugno (Lecce, Italy), Journal of Archaeological Science, vol. 33, pp 1194-1204, 2006.

Longman I. M. Formulas for computing the tidal acceleration due to the moon and the sun: Journal of Geophysical Research, vol. 64, pp 567–576, 1959.

Madej J., Jakiel K. and Porzucek S. Microgravimetric assessment of possible surface deformations in some post-mining areas, Proceedings of the Joint Sixth Biennial SGA- SEG Meeting, A.A. Balkema Publishers, Poland, pp 1035-1038, 2001.

McGrath R.J. , Styles P. , Thomas E. & Neale S Integrated high resolution geophysical investigations as potential tools for water resource investigations in karst terrain, Environmental Geology, vol. 42, pp 552–557, 2002.

Rybakov M, Rotstein Y, Shirman B & Al-Zoubi A. Cave detection near the Dead Sea—a micromagnetic feasibility study, The Leading Edge 24(6), pp 585–590, 2005

Skeels D.C., What is residual gravity Geophysics, vol. 32, 872–876, 1967.

Beres M., Luetscher M. & Olivier R. Integration of ground penetrating radar and microgravimetric methods to map shallow caves, Journal of Applied Geophysics, vol. 46, pp 249–262, 2001.

Blakely R. Potential Theory in Gravity and Magnetic Applications, Cambridge University Press, England, 1991.

Golebiowski T. 3D GPR measurements for fractures detection in selected post- mining regions in Poland, Proceedings of International Conference “Near Surface 2010”, EAEG Org., Zurich, Switzerland, 2010.

Grandjeana G. & Leparoux D. The potential of seismic methods for detecting cavities and buried objects: experimentation at a test site, Journal of Applied Geophysics, 56, iss. 2, pp 93-106.

Leucci G. Contribution of Ground Penetrating Radar and Electrical Resistivity Tomography to identify the cavity and fractures under the main Church in Botrugno (Lecce, Italy), Journal of Archaeological Science, vol. 33, pp 1194-1204, 2006.

Longman I. M. Formulas for computing the tidal acceleration due to the moon and the sun: Journal of Geophysical Research, vol. 64, pp 567–576, 1959.

Madej J., Jakiel K. and Porzucek S. Microgravimetric assessment of possible surface deformations in some post-mining areas, Proceedings of the Joint Sixth Biennial SGA- SEG Meeting, A.A. Balkema Publishers, Poland, pp 1035-1038, 2001.

McGrath R.J. , Styles P. , Thomas E. & Neale S Integrated high resolution geophysical investigations as potential tools for water resource investigations in karst terrain, Environmental Geology, vol. 42, pp 552–557, 2002.

Rybakov M, Rotstein Y, Shirman B & Al-Zoubi A. Cave detection near the Dead Sea—a micromagnetic feasibility study, The Leading Edge 24(6), pp 585–590, 2005

Skeels D.C., What is residual gravity Geophysics, vol. 32, 872–876, 1967.