Commenced in January 2007
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Design Transformation to Reduce Cost in Irrigation Using Value Engineering

Authors: F. S. Al-Anzi, M. Sarfraz, A. Elmi, A. R. Khan

Abstract:

Researchers are responding to the environmental challenges of Kuwait in localized, innovative, effective and economic ways. One of the vital and significant examples of the natural challenges is lack or water and desertification. In this research, the project team focuses on redesigning a prototype, using Value Engineering Methodology, which would provide similar functionalities to the well-known technology of Waterboxx kits while reducing the capital and operational costs and simplifying the process of manufacturing and usability by regular farmers. The design employs used tires and recycled plastic sheets as raw materials. Hence, this approach is going to help not just fighting desertification but also helping in getting rid of ever growing huge tire dumpsters in Kuwait, as well as helping in avoiding hazards of tire fires yielding in a safer and friendlier environment. Several alternatives for implementing the prototype have been considered. The best alternative in terms of value has been selected after thorough Function Analysis System Technique (FAST) exercise has been developed. A prototype has been fabricated and tested in a controlled simulated lab environment that is being followed by real environment field testing. Water and soil analysis conducted on the site of the experiment to cross compare between the composition of the soil before and after the experiment to insure that the prototype being tested is actually going to be environment safe. Experimentation shows that the design was equally as effective as, and may exceed, the original design with significant savings in cost. An estimated total cost reduction using the VE approach of 43.84% over the original design. This cost reduction does not consider the intangible costs of environmental issue of waste recycling which many further intensify the total savings of using the alternative VE design. This case study shows that Value Engineering Methodology can be an important tool in innovating new designs for reducing costs.

Keywords: Desertification, functional analysis, scrap tires, value engineering, waste recycling, water irrigation rationing.

Digital Object Identifier (DOI): doi.org/10.5281/zenodo.1132407

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References:


[1] eFunda, Inc. "Rapid Prototyping: An Overview". Efunda.com. Retrieved 2013-06-14.
[2] Greg Gibbons, Interview about Additive Manufacturing, WMG, University of Warwick", Warwick University, Knowledge Centre. Accessed 18 October 2013.
[3] NSF JTEC/WTEC Panel Report-RPA http://www.wtec.org/pdf/rp_vi.pdf. Accessed 10 November 2015.
[4] Vaibhav Bagaria, Darshana Rasalkar, Shalini Jain Bagaria and Jami Ilyas, “Medical Applications of Rapid Prototyping - A New Horizon“, http://cdn.intechopen.com/pdfs/20116/InTech-medicalapplications_of_rapid_prototyping_a_new_horizon.pdf. Accessed 16 April 2017.
[5] Geist, Helmut. 2005, The Causes And Progression Of Desertification, Ashgate Publishing.
[6] Oxford Dictionaries, https://en.oxforddictionaries.com/definition/desertification. Accessed 6 June 2017.
[7] SAVE International®: https://value-eng.site-ym.com/page/AboutVE. Accessed 7 June 2017.
[8] Blackman, A., and Bannister G. 1998. Community Pressure and Clean Technology in the informal Sector; An Economic Analysis of the adoption of propane by Traditional Mexican Brikmaker, J. of Environmental Economics & management 36, 1 1-21.
[9] Böer, B. 1998. Anthropogenic factors and their potential impacts on the sustainable development of Abu-Dhabi; terrestrial biological resources, Int. J. of Sustainable Development and World Ecology 5 125-135.
[10] Bowker, G. E., Baldauf, R., Isakov, V., Khlystov, A. and Petersen, W. 2007. The effect of roadside structures on the transport and dispersion of ultrafine particles from highways, Atmospheric Environment 41,37 8128-8139.
[11] Darwish, M. A., Al-Awadhi, F. M., Darwish, A. M. 2008. Energy and water in Kuwait Part I. A sustainability view point. Desalination 225: 341–355
[12] El-Kharraz, J., El-Sadek, A., Ghaffour, N., Mino, E. 2012. Water scarcity and drought in WANA countries. Procedia Engineering 33: 14 – 29.
[13] Skidmore, E. L. 1986. Wind erosion climatic erosivity, Climate Change 9 209-218.
[14] Tetsuzo, O. 1999. Greenhouse effectiveness and greenification Basic Study of Environmental Assessment in term of energy recycle system of carbon dioxide, 26,216-220.
[15] Wilfred H. Roudebush. An Environmental Value Engineering Application to Assess the Environmental Impact of Construction Waste, North Carolina Recycling Association 8th Annual NCRA Conference and 3rd Annual Southeastern Green building Conference March 2-4, 1998, Greensboro, NC, USA.
[16] Martyn R. Philips. Toward Sustainability & Conesus through Value Management, International Conference of Hong Kong Institute of Value Management, 1999, Hong Kong.
[17] Martyn R. Philips. Environmental Strategic Choice Through Value Management, Value World Journal, SAVE International, Spring 2000.
[18] Olson D, Delen D. Advanced Data Mining Techniques, Springer, 1st edition, 2008.
[19] Bacchelli A, Lanza M, Robbes R. Linking e-mails and source code artifacts, Proceedings of the 32nd ACM/IEEE International Conference on Software Engineering, Cape Town, South Africa, 2010, 1, pp. 375-384.
[20] Diego Schiavon. Report: the Groasis Waterboxx, The Management Board of the La Primavera Agricultural Cooperative, ISTC 01 Technical Communication Techniques, 2012.
[21] Gewin, V. 2014, "Next-gen greenhouses support desert agriculture", Frontiers in Ecology and the Environment, vol. 12, no. 10, pp. 542-542.
[22] Kruschwitz, N. 2015, "To Conserve Water for Agriculture, a Solution from the Desert", MIT Sloan Management Review, vol. 56, no. 2, pp. 0.
[23] Zeng, R.S., Luo, S.M. & Mallik, A.U. 2008, Allelopathy in Sustainable Agriculture and Forestry, Springer-Verlag, New York, NY.
[24] Juo, A.S.R. & Franzluebbers, K. 2003, Tropical soils: properties and management for sustainable agriculture, Oxford University Press, GB.
[25] Soil Biological Fertility: A Key to Sustainable Land Use in Agriculture, 2004, Springer Netherlands.
[26] Abdelly, C., Ashraf, M., Grignon, C. & Öztürk, M. 2008, Biosaline Agriculture and High Salinity Tolerance, Birkhäuser, DE.
[27] Oron, G., Gillerman, L., Bick, A., Manor, Y., Buriakovsky, N. & Hagin, J. 2008, "Membrane technology for sustainable treated wastewater reuse: Agricultural, environmental and hydrological considerations", Water Science and Technology, vol. 57, no. 9, pp. 1383-1388.
[28] Barnes, C. & Flynn, R. 1998, Water conservation in New Mexico agriculture.
[29] Venugopalan, V. 1997, Water conservation methods.
[30] Unger, P. & Howell, T. 1999, Agricultural water conservation - A global perspective.
[31] Piccinni, G., Supercinski, D., Leskovar, D., Harris, B. & Jones, C. 2006, Rio Grande Basin water conservation project.
[32] Lauren M. Porensky, Jay Davison, Elizabeth A. Leger, W. Wally Miller, Erin M. Goergen, Erin K. Espeland, Erin M. Carroll-Moore, Grasses for biofuels: A low water-use alternative for cold desert agriculture?, Biomass and Bioenergy, Volume 66, July 2014, Pages.
[33] Patent Application under process (Deck No. 23588.79), “Utility Application for Planter System Using Waste Martials”, 2016.