Evaluation of the Fate of Nitrate and Analysis of Shallow Soil Water using Geo-electrical Resistivity Survey
DOI:
https://doi.org/10.5614/j.eng.technol.sci.2017.49.4.5Keywords:
bachok, fate of nitrate, geo-electrical resistivity, hydrogeochemical, tobacco.Abstract
Evaluation of the fate of nitrate and analysis of shallow soil water in a tobacco plantation area were conducted using integration of soil properties and hydrogeochemical analysis, and geo-electrical resistivity methods, taking measurements four times within a three-month period. The sampling data were taken in two areas: a fertilized and a nonfertilized zone. Chemical fertilizer was introduced to the fertilized zone after the first data acquisition. Hydrogeohemical analysis of the soil water was conducted from the surface to a depth of 1 m at an interval of 25 cm. The results show that the cations in the soil water were quite comparable for each monitoring time. Conversely, relatively larger changes in anion content occurred at the surface until a depth of 1 m. In particular, the nitrate concentration reached its maximum level at about 67 days after fertilization and returned to its initial value approximately 195 days after fertilization. The geo-electrical resistivity profiles exhibited no indication of low resistivity values prior to fertilization near the surface. However, lower resistivity values were found in the fertilized zone at the second and third measurement. The result shows that the adjoining environment dissolved the nitrate concentration in the pore soil within the three-month time period.Downloads
References
Zhao, B.Q., Li, X.Y., Liu, H., Wang, B.R., Zhu, P., Huang, S.M., Bao, D.J., Li, Y.T. & So, H.B., Results from Long-Term Fertilizer Experiments in China: The Risk of Groundwater Pollution by Nitrate, NJAS-Wageningen Journal of Life Sciences, 58(3-4), pp. 177-183, 2011.
Pena-Haro, S., Llopis-Albert, C., Pulido-Velazquez, M. & Pulido-Velazquez, D., Fertilizer Standards for Controlling Groundwater Nitrate Pollution from Agriculture: El Salobral-Los Llanos Case Study, Spain, Journal of Hydrology, 392(3-4), pp. 174-187, 2010.
Murgulet, D. & Tick, G.R., Understanding the Sources and Fate of Nitrate in a Highly Developed Aquifer System, Journal of Contaminant Hydrology, 155, pp. 69-81, 2013.
Han, D., Cau, G., McCallum, J. & Song, X., Residence Times of Groundwater and Nitrate Transport in Coastal Aquifer Systems: Daweijia Area, Northeastern China, Science of The Total Environment, 538, pp. 539-554, 2015.
Islami, N., Geolectrical Resistivity and Hydrogeochemical Contrast between the Area that has been Applied with Fertilization for Long Duration and Non-Fertilization, ITB J. Eng Sci., 42(2), pp. 151-164, 2010.
Kim, Y., Seo, Y., Kraus, D., Klatt, S., Haas, E., Tenhunen, J. & Kiese, R., Estimation and Mitigation of N2O Emission and Nitrate Leaching from Intensive Crop Cultivation in the Haean Catchment, South Korea, Science of The Total Environment, 529, pp. 40-53, 2015.
Otero, N., Torrento, C., Soler, A., Mencio, A. & Mas-Pla, J., Monitoring Groundwater Nitrate Attenuation in a Regional System Coupling Hydrogeology with Multi-Isotopic Methods: The Case of Plana de Vic (Osona, Spain), Agriculture, Ecosystems & Environment, 133(1-2), pp. 103-113, 2009.
Zang, Y., Li, F., Zhang, Q., Li, J. & Liu, Q., Tracing Nitrate Pollution Sources and Transformation in Surface- and Ground-Waters using Environmental Isotopes, Science of The Total Environment, 490, pp. 213-222, 2014.
Al-Charideh, A. & Hasan, A., Use of Isotopic Tracers to Characterize the Interaction of Water Components and Nitrate Contamination in the Arid Rasafeh area (Syria), Environ Earth Sci., 70(1), pp. 71-82, 2013.
Karan, S., Kidmose, J., Engesgaard, P., Nilsson, B., Frandsen, M., Ommen, D.O.A., Flindt, M.R., Andersen, F.. & Pedersen, O., Role of a Groundwater-Lake Interface in Controlling Seepage of Water and Nitrate, Journal of Hydrology, 517, pp. 791-802, 2014.
Kneisel, C., Emmert, A. & Kastl, J., Application of 3D Electrical Resistivity Imaging for Mapping Frozen Ground Conditions Exemplified by Three Case Studies, Geomorphology, 210, pp. 71-82, 2014.
Tsokas, G.N., Tsourlos, P.I., Vargemezis, G.N. & Pazaras, N.Th., Using Surface and Cross-Hole Resistivity Tomography in an Urban Environment: An Example of Imaging the Foundations of the Ancient Wall in Thessaloniki, North Greece, Physics and Chemistry of the Earth, 36(16), pp. 1310-1317, 2011.
Sengul, O., Use of Electrical Resistivity as an Indicator for Durability, Construction and Building Materials, 73, pp. 434-441, 2014.
Chen, C-T., Chang, J-J. & Yeih, W-C., The Effects of Specimen Parameters on the Resistivity of Concrete, Construction and Building Materials, 71, pp. 35-43. 2014.
Sebastian, K., Maciej, M. & Piotr, T., Determination of the Correlation between the Electrical Resistivity of Non-Cohesive Soils and the Degree of Compaction, Journal of Applied Geophysics, 110, pp. 43-50, 2014.
Khaki, M., Yusoff, I. & Islami, N., Groundwater Quality Assessment of a Freshwater Wetland in the Selangor (Malaysia) Using Electrical Resistivity and Chemical Analysis, Water Science & Technology: Water Supply, 14(2), pp. 255-264, 2014.
Auken, E., Doetsch, J., Fiandaca, G., Vest Christiansen, A., Gazoty, A., Cahlil, A.G. & Jakobsen, R., Imaging Subsurface Migration of Dissolved CO2 in a Shallow Aquifer Using 3-D Time-Lapse Electrical Resistivity Tomography, Journal of Applied Geophysics, 101, pp. 31-41, 2014.
Park, S., Yi, M-J., Kim, J-H. & Shin, S.W., Electrical Resistivity Imaging (ERI) Monitoring for Groundwater Contamination in an Uncontrolled Landfill, South Korea, Journal of Applied Geophysics, 135, pp. 1-7, 2016.
U.S. Environmental Protection Agency, Nitrogen-ammonia/nitrite /nitrate, Water Quality Standards Criteria Summaries, Washington, DC, 1980. GPO: 1980-341-082/107
Noor, I.M., Pre Feasibility Study of Potential Groundwater Development in Kelantan, Malaysia, (Unpublished PhD Thesis), University of Birmingham, United Kingdom, 1979.
Hamlin, W.K., Earth Dynamic Systems, Sixth Edition, Bringham Young University, Provo, Utah, 1991.
Van Hoorn, J.W., Determining Hydraulic Conductivity with the Inversed Auger Hole and Infiltrometer Methods, Paper 1.06, pp.150-154, 1979, http://www.samsamwater.com/library/DETERMINING_HYDRAULIC_CONDUCTIVITY_WITH_THE_INVERSED_AUGER_HOLE_AND_INFILTROMETER_METHODS.pdf, accessed, 14 March 2011.
Tiwari, A.K., Singh, A.K. & Mahato, M.K., Environmental Hydro-geochemistry and Groundwater Quality, Lambert Academic Publishing, 64 pp., 2015.
Lee, M.S., Lee, K.K., Hyun, Y., Clement, T.P. & Hamilton, D., Nitrogen Transformation and Transport Modeling in Groundwater Aquifers, Ecol. Model, 192(1-2), pp. 143-159, 2006.
Loke, M.H., Rapid 2-D Resistivity & IP Inversion Using the Least-squares Method, Geotomo Software, Malaysia, 2007.
Hillel, D., Environmental Soil Physics, San Diego, United States, Academic Press, 1998.
World Health Organization (WHO), Guideline for Drinking-water, Vol. 1, Recommendations, Geneva, 1984.
Islami, N., Taib, S., Yusoff, I. & Ghani, A.A., Time Lapse Chemical Fertilizer Monitoring in Agriculture Sandy Soil, International Journal of Environmental Science and Technology, 8(4), pp. 765-780, 2011.
Silva, R.G., Holub, S.M., Jorgensen, E.E. & Ashanuzzaman, A.N.M., Indicators of Nitrate Leaching Loss Under Different Land Use of clayey and Sandy Soils in Southeastern Oklahoma, Agriculture, Ecosyst. Environ, 109(3-4), pp. 346-359, 2005.
Hounslow, A.W., Water Quality Data: Analysis and Interpretation, CRC Lewis Publishers, Boca Raton, FL, United States, 1995.