IMPACT ASSESSMENT OF PROPOSED UNDERGROUND RAILWAY LINE IN BRATISLAVA ON GROUNDWATER REGIME

Burger F. Modelling and Numerical Simulation of Groundwater Flow in the Riparian Alluvial Aquifer, Journal of Hydrology and Hydromechanics, Vol. 55, 2007, No. 3, UH SAV, Bratislava, pp. 168–184.

Bear J. Hydraulics of Groundwater, USA, Mc Graw-Hill Series in Water Resources and Environmental Engineering, 1979.

Kovářík K. Numerical Models in Groundwater Pollution, Berlin Heidelberg, Springer - Verlag, p. 221, 2000.

Malík P. Determination of boundary conditions of the modelled territory for the TEN-T Bratislava project. State Geological Institutev of Dionýz Štúr, Bratislava, 2007.

Říha J. Mathematical modelling of hzdrodznamic and disperse phenomena , Faculty of Civil Engineering, VUT Brno, p. 185, 1997.

Možiešiková K. & Sopková M. & Švasta J. Nitra River and Žitava River basins – groundwater regime mode lling. Proc. Of the 14. Slovak hydrogeological conference , SAH, Bratislava, ISBN 978-80-969342-3-2, pp. 28-34, 2007.

Royal Haskoning Triwaco a Simulation Package for Groundwater, Version 3. 0 internal release RH, Royal Haskoning Division Water, Rotterdam, Netherlands, 2002.

Škvarka J. & Kupka Š. & Takáčová M. & Šikula G. Study of railway connection in the City of Bratislava. EKOGEOS Ltd., Bratislava, p. 129, 2007.

Šoltész A. & Baroková D. Modelling solution of the impact of the planned TEN- T underground railway line on the groundwater flow regi me in the Bratislava region. Faculty of Civil Engineering, STU, Bratislava, p. 65, 2007.

Švasta J. & Malík P. (2006): S patial distribution of mean effective precipitation over Slovakia. Podzemná voda XII/2006 č. 1, S AH, ISSN 13 35-1052, Bratislava, pp. 12- 20, 2006.

Zaadnoordijk W. J. Simulating Piecewise-Linear Surface Water and Ground Water Interactions with MODFLOW, Groundwater, Vol. 47, Issue 5, pp. 723 –726, 2009.

Archive works of the Geofond Department at SGIDŠ Bratislava.

SHMU, Dopravoprojekt Bratislava background materials.

Burger F. Modelling and Numerical Simulation of Groundwater Flow in the Riparian Alluvial Aquifer, Journal of Hydrology and Hydromechanics, Vol. 55, 2007, No. 3, UH SAV, Bratislava, pp. 168–184.

Bear J. Hydraulics of Groundwater, USA, Mc Graw-Hill Series in Water Resources and Environmental Engineering, 1979.

Kovářík K. Numerical Models in Groundwater Pollution, Berlin Heidelberg, Springer - Verlag, p. 221, 2000.

Malík P. Determination of boundary conditions of the modelled territory for the TEN-T Bratislava project. State Geological Institutev of Dionýz Štúr, Bratislava, 2007.

Říha J. Mathematical modelling of hzdrodznamic and disperse phenomena , Faculty of Civil Engineering, VUT Brno, p. 185, 1997.

Možiešiková K. & Sopková M. & Švasta J. Nitra River and Žitava River basins – groundwater regime mode lling. Proc. Of the 14. Slovak hydrogeological conference , SAH, Bratislava, ISBN 978-80-969342-3-2, pp. 28-34, 2007.

Royal Haskoning Triwaco a Simulation Package for Groundwater, Version 3. 0 internal release RH, Royal Haskoning Division Water, Rotterdam, Netherlands, 2002.

Škvarka J. & Kupka Š. & Takáčová M. & Šikula G. Study of railway connection in the City of Bratislava. EKOGEOS Ltd., Bratislava, p. 129, 2007.

Šoltész A. & Baroková D. Modelling solution of the impact of the planned TEN- T underground railway line on the groundwater flow regi me in the Bratislava region. Faculty of Civil Engineering, STU, Bratislava, p. 65, 2007.

Švasta J. & Malík P. (2006): S patial distribution of mean effective precipitation over Slovakia. Podzemná voda XII/2006 č. 1, S AH, ISSN 13 35-1052, Bratislava, pp. 12- 20, 2006.

Zaadnoordijk W. J. Simulating Piecewise-Linear Surface Water and Ground Water Interactions with MODFLOW, Groundwater, Vol. 47, Issue 5, pp. 723 –726, 2009.

Archive works of the Geofond Department at SGIDŠ Bratislava.

SHMU, Dopravoprojekt Bratislava background materials.