JWARP  Vol.11 No.6 , June 2019
Drainage Management Problems Evaluation: Case Study Baloza and EL-Farama Drains, North Sinai, Egypt
Abstract: Drainage management activities aim at maintaining the performance of drainage networks by assessing the major drainage management problems regarding sedimentation, bank erosion, vegetation, water quality, and biodiversity, to find appropriate solutions for channel improvement in order to increase agricultural productivity and maintain agricultural land and the surrounding environment. In this research, we evaluate the drainage management problems to the surface drains Baloza and EL-Farama in the cultivated Tina Plain region (21,000 hectares) North Sinai, Egypt to provide an accurate data to help decision-makers to know the status of maintenance of the watercourses and the need for improvement. For this, Intensive field investigations were carried out regarding a hydrographic survey of the actual drains cross-section using total station and aqua sounder devices, visual stream bank erosion survey, and vegetation survey. In addition, monthly water samples from the drainage water were treated and analyzed for physical and chemical, bacteriological related indices. The results showed, the studied drains suffer from sedimentation, vegetation infection, and bank erosion in some reaches and need remedy. Estimated sedimentation in EL-Farama Drain was 34369 m3/year and in Baloza Drain 29153 m3/year; bank slope failures upstream and downstream pump stations were recorded; the average weed infection ratio for both drains was 30%. The results of water quality parameters showed acceptable concentrations for BOD, DO, NO3, and total coliform according to Egypt decree, 92/2013 for the protection of the Nile River and its waterways from pollution, except TDS (more than 10,000 mg/L). The drainage water was classified as high saline and it was unacceptable for irrigation. Therefore, the author recommends to remove sedimentation and vegetation every 2 years by mechanical methods, applying gabions lining to prevent bank erosion, and treating drainage water using wetland system and utilizing the treated wastewater in fish farming.
Cite this paper: Gabr, M. (2019) Drainage Management Problems Evaluation: Case Study Baloza and EL-Farama Drains, North Sinai, Egypt. Journal of Water Resource and Protection, 11, 675-689. doi: 10.4236/jwarp.2019.116039.

[1]   New Zealand Water Environment Research Foundation (NZWERF) (2005) Sustainable Drainage Management—Field Guide. Wellington.

[2]   Walter, O. and Hervé, P. (2005) Water Resources and Environment Technical Note E.1, Irrigation and Drainage Development. International Bank for Reconstruction and Development, the World Bank, Washington DC.

[3]   Essex County Council Environment (ECC) (2016) Sustainable Drainage Systems Design Guide. Sustainability & Highways.

[4]   Arcement, G.J. and Schneider, V.R. (1989) Guide for Selecting Manning’s Roughness Coefficients for Natural Channels and Flood Plains. United States Geological Survey Water Supply, Paper 2339.

[5]   Peter, C. and Scott, M. (1984) Stream Bank Erosion Protection and Channel Scour Manipulation Using Rock fill Dikes and Gabion. Water Resources Research Institute Oregon State University, Corvallis, WRRI-98, PAP-734.

[6]   King County Department (KCD) of Public Works Surface Water Management Division (1993) Guide Lines for Bank Stabilization Projects: In Riverine Environments of King County. Seattle.

[7]   Steve, J. (2002) Stream Channel and Floodplain Erosion. Water and Rivers Commission, Hyatt Centre, East Perth, Western Australia, Report No. RR18.

[8]   Iowa Department of Natural Resources (IDNR) in Cooperation with the Natural Resources Conservation Service (2006) How to Control Streambank Erosion Iowa Department of Natural Resources. U.S. Department of Agriculture, Washington DC.

[9]   Siwan, L. and Phil, P. (1999) Riparian Land Management Technical Guidelines. Volume One: Principles of Sound Management. Land and Water Resources Research and Development Corporation (LWRRDC), Canberra.

[10]   U.S. Army Corps of Engineers (USACE) (2007) White Paper: Treatment of Vegetation within Local Flood-Damage-Reduction Systems. Washington DC.

[11]   U.S. Army Corps of Engineers (USACE) (2014) Guidelines for Landscape Planting and Vegetation Management at Levees, Floodwalls, Embankment Dams and Appurtenant Structures. Engineering Technical Letter (ETL) 1110-2-583, Washington DC.

[12]   Kostas, V. and Dimitra, V. (2012) Water Quality Monitoring and Assessment. InTech, Rijeka.

[13]   Department of Environment and Heritage Protection (DEHP), Department of Science, Information Technology and Innovation, Environmental Protection, Water Policy (2017) Monitoring and Sampling Manual Sampling Design and Preparation Version. Consultation DRAFT, Queensland Government.

[14]   Neil, A., Michael, V., Lloyd, F., Kevin, W. and Jessica, D. (2013) Alternative Technology for Storm Water Management the South African Guidelines for Sustainable Drainage Systems. Report to the Water Research Commission by University of Cape Town, Cape Town, WRC Report No. TT 558/13.

[15]   Muema, F.M., Home, P.G. and Raude, J.M. (2018) Application of Benchmarking and Principal Component Analysis in Measuring Performance of Public Irrigation Schemes in Kenya. Agriculture, 8, 162.

[16]   Schultz, B., Thatte, C.D. and Labhsetwar, V.K. (2015) Irrigation and Drainage: Main Contributors to Global Food Production. Irrigation and Drainage, 54, 263-278.

[17]   Osman, I.E. (2015) Impact of Improved Operation and Maintenance on Cohesive Sediment Transport in Gezira Scheme, Sudan. Wageningen University, UNESCO-IHE Institute for Water Education, Wageningen.

[18]   Scheumann, W. and Freisem, C. (2002) The Role of Drainage for Sustainable Agriculture. Journal of Applied Irrigation Science, 37, 33-61.

[19]   Ritzema, H.P., Satyanarayana, T.V., Raman, S. and Boonstra, J. (2008) Subsurface Drainage to Combat Water-Logging and Salinity in Irrigated Lands in India: Lessons Learned in Farmers’ Fields. Agricultural Water Management, 95, 179-189.

[20]   Nijland, H.J. (2000) Drainage along the River Nile. RIZA Nota, Lelystad, 323 p.

[21]   Mohamed, G. (2018) Magnitude and Characteristics of Sand Dunes Encroachment towards El-Sheikh Gaber Channel, North Sinai, Egypt. 21st International Water Technology Conference, Ismailia, 28-30 June 2018, 43-47.

[22]   Channel Maintenance Research Institute, National Water Research Center, Ministry of Water Resources and Irrigation (MRWI) (2010) Assessing of the Irrigation and Drainage Network Maintenance at the North Sinai Project. Technical Report submitted to the Sector of Irrigation, Water Resources and Infrastructures in the North of Sinai. Channel Maintenance Research Institute, El-kanater El-khairia, MWRI, Egypt. (In Arabic)

[23]   APHA, AWWA, and WEF (2012) Standards Methods for the Examination of Water and Wastewater. 22nd Edition, Washington DC.

[24]   Egypt Decree, 92/2013 for the Protection of the Nile River and Its Waterways from Pollution. Decree of Minister of Water Resources and Irrigation No. 92 for Year 2013 for the Executive Regulation of Law 48/1982, 92/2013, FAO, FAOLEX.

[25]   Drainage Research Institute (DRI), National Water Center, Ministry of Water Resources and Irrigation (MRWI) (2015) Study of Water Quality in Sheikh Gaber Canal, East South EL-Qantara Canal, Some Branch Canals, and Main Drains in the North Sinai Project (Final Report) for the Period from 2010 to 2014. Technical Report submitted to the Sector of Irrigation, Water Resources, and Infrastructures in the North of Sinai. DRI, El-kanater El-khairia, MWRI, Egypt. (In Arabic)

[26]   Gad, A. (2016) Sand Dune Distribution and Related Impacts on Agricultural Resources of Sinai Peninsula, Egypt, Using Integrated Remote Sensing-GIS Techniques. Global Advanced Research Journal of Agricultural Science, 5, 42-50.

[27]   Yasser, A., Mahmoud, A. and Shaymaa, O. (2015) Plant Diversity of the Damietta Branch, River Nile, Egypt: An Ecological Insight. Mesopotamia Environmental Journal, 1, 109-129.

[28]   Amrapalli, G. and Joel, S. (2013) River Bank Protection. CIVE 717.

[29]   Phocaides, A. (2000) Technical Handbook on Pressurized Irrigation Techniques. FAO, Rome, 372.

[30]   Kumar, M., Kumari, K., Ramanathan, A.L. and Saxena, R.A. (2007) Comparative Evaluation of Groundwater Suitability for Irrigation and Drinking Purposes in Two Intensively Cultivated, Districts of Punjab, India. Environmental Geology, 53, 553-574.