Earth-prints repository, logo   Istituto Nazionale di Geofisica e Vulcanologia

Istituto Nazionale di Geofisica e Vulcanologia
 
|earth-prints home page | roma library | bologna library | catania library | milano library | napoli library | palermo library

Earth-prints >
Editorial Initiatives >
eJournals >
Annals of Geophysics >

Please use this identifier to cite or link to this item: http://hdl.handle.net/2122/1123

Share this record with your favourite social network:     Del.icio.us     Citeulike     Connotea
Facebook     Stumble it!     reddit    
Title: Geoelectrical investigation for the assessment of groundwater conditions: a case study
Authors: Lashkaripour, G. R.*
Nakhaei, M.*
Keywords: electrical resistivity
sounding
roundwater condition
Shooro
Iran
Issue Date: Dec-2005
Series/Report no.: 48 (6)
Abstract: An electrical resistivity survey involving Vertical Electrical Soundings (VES) was carried out in the Shooro Basin in Southeast Iran in order to study groundwater conditions such as depth, thickness and aquifer boundaries. Vertical electrical soundings by Schlumberger array were conducted in this area. The resistivity Schlumberger soundings which have a maximum current electrode spacing (AB) ranging from 200 m to 600 m were carried out at 207 positions in 19 profiles. Interpretation of these soundings indicates the presence of an alluvial aquifer. This aquifer is divided into eastern and western parts by the Shooro River, which comprises a variable thickness and resistivity of deposits. The average permeability coefficient and resistivity in the western part, especially southwest is higher than the eastern part of the aquifer. Therefore, it seems that Shooro River follows a fault zone in the region. The high resistivity of west part is due to the water quality and the existence of alluvial fan with coarse grain materials. Low aquifer resistivities in the east are associated with finer materials and also brackish water infiltration from the adjacent basin mainly in the central part of the aquifer. Furthermore, zones with high yield potential have been determined in this research based on the resistivity data.
URI: http://hdl.handle.net/2122/1123
Appears in Collections:Annals of Geophysics
03.02.07. Instruments and techniques
03.02.03. Groundwater processes
04.02.04. Magnetic and electrical methods

Files in This Item:

File Description SizeFormat
06 Lashkaripour.pdf1.3MbAdobe PDFView/Open
  • APPARAO, A. and T.G. RAO (1974) Depth of investigation in
  • resistivity methods using linear electrodes, Geophys.
  • Prospect., 22, 211-223.
  • CHOUDHURY, K., D.K. SAHA and P. CHAKRABORTY (2001):
  • Geophysical study for saline water intrusion in a coastal
  • alluvial terrain, J. Appl. Geophys., 46, 189-200.
  • DARVISHZADEH, A. (1981): Geology of Iran (Nasher Danesh
  • Emrooz Publisher), (in Persian).
  • EL-WAHEIDI, M.M., F. MERLANTI and M. PAVAN (1992):
  • Geoelectrical resistivity survey of the central part of
  • Azraq Basin (Jordan) for identifying saltwater/freshwater
  • interface, J. Appl. Geophys., 29, 125-133.
  • FROHLICH, R.K. and W.E. KELLY (1987): Estimates of specific
  • yield with the geoelectric resistivity method in
  • glacial aquifers, J. Hydrol., 97, 33-44.
  • FROHLICH, R.K. and D. URISH (2002): The use of geoelectrics
  • and test wells for the assessment of groundwater
  • quality of a coastal industrial site, J. Appl. Geophys.,
  • 50, 261-278.
  • GEOLOGICAL SURVEY OF IRAN (1995): Geological Map of
  • Khash, Scale 1:250000.
  • JACKSON, P.N., S.D. TAYLOR and P.N. STANFORD (1978): Resistivity-
  • porosity-particle shape relationships for marine
  • sands, Geophysics, 43, 1250-1268.
  • KAYA, G.K. (2001): Investigation of groundwater contamination
  • using electric and electromagnetic methods at
  • an open waste-disposal site: a case study from Isparta,
  • Turkey, Environ. Geol., 40, 725-731.
  • KELLY, E.W. (1976): Geoelectric sounding for delineating
  • ground water contamination, Ground Water, 14, 6-11.
  • KESSELS, W., I. FLENTGE and H. KOLDITZ (1985): DC geoelectric sounding to determine water content in the salt
  • mine asse (FRG), Geophys. Prospect., 33, 456-446.
  • KOEFOED, O. (1979): Geosounding Principles, 1. Resistivity
  • Sounding Measurements (New York, NY, Elsevier
  • Scientific Pub. Co.), pp. 276.
  • KOSSINSKI, W.K. and W.E. KELLY (1981): Geoelectric
  • sounding for predicting Aquifer Properties, Ground
  • Water, 19, 163-171.
  • LASHKARIPOUR, G.R. (2000): Groundwater pollution of Zahedan
  • city in the East of Iran, J. Nepal Geol. Soc., 21,
  • 99-102.
  • MATIAS, M.J.S. (2002): Squary array anisotropy measurements
  • and resistivity sounding interpretation, J. Appl.
  • Geophys., 49, 185-194.
  • MCCALL, G.J.H. (1997): The geotectonic history of Makran
  • and adjacent area of Southern Iran, J. Asian Earth Sci.,
  • 15, 517-531.
  • TIRRUL, R., I.R. BELL, R.J. GRIFFIS and V.E. CAMP (1983):
  • The Sistan suture zone of Eastern Iran, Geol. Soc. Am.
  • Bull., 94, 134-150.
  • TROISI, S., C. FALLICOS, S. STRAFACE and E. MIGLIARI
  • (2000): Application of kriging with external drift to estimate
  • hydraulic conductivity from electrical resistively
  • data in unconsolidated deposits near Montato Uffugo,
  • Italy, Hydrogeol. J., 8, 356-367.
  • VINCENZ, S.A. (1968): Resistivity investigations of limestone
  • aquifers in Jamaica, Geophysics, 33, 980-994.
  • VOUILLAMOZ, J.M., M. DESCLOITRES, J. BERNARD, P. FOURCASSIER
  • and L. ROMAGNY (2002): Application of integrated
  • magnetic resonance sounding and resistivity
  • methods for borehole implementation. A case study in
  • Cambodia, J. Appl. Geophys., 50, 67-81.
  • YADAV, G.S. and H. ABOLFAZLI (1998): Geoelectric soundings
  • and their relationship to hydraulic parameters in
  • semiarid regions of Jalore, Northwestern India, J. Appl.
  • Geophys., 39, 35-51.
  • YECHIELI, Y. (2000): Fresh-saline ground water interface in
  • the Western Dead Sea area, Ground Water, 38, 615-623.
  • YOUNG, M.E., R.G.M. DE BRUIJIN and A. SALIM AL-ISMAILY
  • (1998): Reports: exploration of an alluvial aquifer in
  • Oman by time-domain electromagnetic sounding, Hydrogeol.
  • J., 6, 383-393.
  • ZOHDY, A.A.R. (1969): Application of deep electrical soundings
  • for groundwater exploration in Hawaii, Geophysics,
  • 34, 584-600.
  • ZOHDY, A.A.R. and R.J. BISDORF (1989): Programs for the
  • automatic processing and interpretation of Schlumberger
  • sounding curves in Quick Basic, U.S. Geol.
  • Surv. Open File Rep. 89-137-2, p. 64.

This item is licensed under a Creative Commons License
Creative Commons

Items in DSpace are protected by copyright, with all rights reserved, unless otherwise indicated.

 

Valid XHTML 1.0! ICT Support, development & maintenance are provided by theAePIC team @CILEA.Powered onDSpace Software. Feedback