[1]. Ross, A. (2018). Speeding the transition towards integrated groundwater and surface water management in Australia. Journal of hydrology, 567: e1-e10.
[2]. Stevanović, Z. (2016). Damming underground flow to enhance recharge of karst aquifers in the arid and semi-arid worlds. International Journal of Engineering Research and Development, 12: 59-69.
[3]. Ru, Y., Jinno, K., Hosokawa, T. and Nakagawa, K. (2001). Study of effect of subsurface dam in coastal seawater intrusion. First international conference on saltwater intrusion and coastal aquifers monitoring, modeling, and management. Essaouira, Morocco, 23-25 April.
[4]. Abdoulhalik, A. and Ahmed, A.A., (2017). How does layered heterogeneity affect the ability of subsurface dams to clean up coastal aquifers contaminated with seawater intrusion. Journal of hydrology, 553: 708-721.
[5]. Salmanpor, A., Abrishami, j. and Tabatabayi Yazdi, j. (2009). Investigate the idea of modifying the qanat using underground dam. Eighth hydraulic conference of Iran, Faculty of engineering, University of tehran, 15-17 December.
[6]. Eshghizadeh, M. and Noura, N. (2010). Determine the proper location of underground dam on qanat (Case study: Qanat dahan chenar, Kalat Gonabad watershed). Journal of water and soil conservation, 17(3): 45-64.
[7]. Vanrompay, L. (2003). Report on the technical evaluation and impact assessment of subsurface dams (SSDs). TLDP technical report 14.
[8]. Laa, A., Kampanart, M. and Kriengsak, S. (2005). Approachability of subsurface dams in the northeast Thailand. International conference on geology, Geo technology and mineral resources of Indochina (GEOINDO 2005), Khon Kaen, Thailand. 28-30 November, 149-155.
[9]. Rainwater Harvesting Implementation Network (RAIN). (2008). A practical guide to sand dam implementation, water supply through local structures as adaptation to climate change. RAIN Foundation, Amsterdam, 39p.
[10]. Foster, S., Azevedo, G., and Baltar, A. (2002). Subsurface dams to augment groundwater storage in basement terrain for human subsistence: Brazilian experience. Universidad federal, 82: 49-56.
[11]. Jamali, I.A., Mörtberg, U., Olofsson, B. and Shafique, M., (2014). A spatial multi-criteria analysis approach for locating suitable sites for construction of subsurface dams in northern pakistan. Water resource management, 28: 5157–5174.
[12]. Jamali, I.A., Olofsson, B. and Mörtberg, U. (2013). Locating suitable sites for the construction of subsurface dams using GIS. Environmental earth sciences, 70(6): 2511–2525.
[13]. Forzieri, G., Gardenti, M., Caparrini, F. and Castelli, F. (2008). A methodology for the pre-selection of suitable sites for surface and underground small dams in arid areas (case study: in the region of Kidal, Mali). Physics and chemistry of the earth, 33: 74-85.
[14]. Gomes, J.L.D.S., Vieira, F.P. and Hamza, V.M., (2018). Use of electrical resistivity tomography in selection of sites for underground dams in a semiarid region in southeastern Brazil. Groundwater for sustainable development, 7: 232-238.
[15]. Davis, J. L. & Annan, A. P. (1989). Ground-Penetrating Radar for high-resolution mapping of soil and rock stratigraphy. Geophysical prospecting, 37(5). 531-551.
[16]. Van Overmeeren, R. A. (1994). Georadar for hydrogeology. First break, 12(8). 401-408.
[17]. Ulriksen, P. (1982). Application of impulse radar to civil engineering. Ph.D. thesis, Lund university of technology, Sweden, Published by geophysical survey system Inc, Hudson, New Hampshire, USA.
[18]. Hanninen, P. (1992). Application of ground penetrating radar techniques to peatland investigations. Procceding of the fourth international conference on ground penetrating radar, Rovaniemi, Finland, Geological survey of finland, Special paper 16, 217-221.
[19]. Saarenketa, T., Hietala, K. & Salmi, R. (1992). GPR applications in geotechnical investigations of peat for road survey purposes. Proceeding fourth international conference on ground penetrating radar, Rovaniemi, Finland, Geological survey of finland, special paper 16, 293-305.
[20]. Lin, M., C., Kang, Y., M., Lee, K., F. and Hsu, H.C. (2009). A study on the technologies for detecting underground water level and processing image. International journal of applied science and engineering, 7(1): 61-68.
[21]. Lima, A.D.O., Lima-Filho, F.P., Dlas, N.D.S., Junior, J.A.D.R. and Sousa, A.D.M. (2017). GPR 3D profile of the adequateness of underground dams in a sub-watershed of the Brazilian Semiarid. Rev. Caatinga, Mossoró, 31(2): 523-531
[22]. Saaty, T.L. (1994). How to make a decision: The analytical hierarchy process. Interfaces, 24(6): 19-43.
[23]. Nilsson, A. (1988). Groundwater dams for small-scale water supply. Intermediate technology publications, London, 69 p.
[24]. Ilyati, I. (2013). Feasibility of constructing an underground dam using remote sensing and geophysical methods (Case study: Kashan plane). Master’s thesis, Faculty of engineering department of civil engineering, Yazd University.