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Design of drip irrigation lateral for optimum capital and operating cost
The drip irrigation system cost can be reduced effectively by using optimal design methods and decreasing the system pressure. In this paper, a two-stage optimum drip irrigation lateral design model is developed based on a new uniformity formula that includes hydraulic variation, emitter manufacture...
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Published in: | Water science & technology. Water supply 2010-12, Vol.10 (6), p.943-951 |
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creator | WU, P. T ZHU, D. L JIN, J NIU, W. P |
description | The drip irrigation system cost can be reduced effectively by using optimal design methods and decreasing the system pressure. In this paper, a two-stage optimum drip irrigation lateral design model is developed based on a new uniformity formula that includes hydraulic variation, emitter manufacture’s variation, and field roughness variation. The non-linear objective function minimizes the capital cost and the present values of the lateral operating cost. In the first stage, the pipe diameter and the emitter average pressure are taken as decision variables for the specified uniformity and lateral length. In the second stage, a commercially available pipe size that is very close to the diameter obtained in the first stage is selected. It has an allowable pressure that is a little more than or equal to 1.5 times of the maximum lateral pressure obtained in the first stage. The emitter average pressure is calculated for a known diameter. The model is applied to a case study in which the result indicates that a lateral with a larger diameter and the lower emitter average pressure can be economically justifiable. A drip irrigation system with a lower pressure should be developed on the basis of this study. |
doi_str_mv | 10.2166/ws.2010.618 |
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It has an allowable pressure that is a little more than or equal to 1.5 times of the maximum lateral pressure obtained in the first stage. The emitter average pressure is calculated for a known diameter. The model is applied to a case study in which the result indicates that a lateral with a larger diameter and the lower emitter average pressure can be economically justifiable. A drip irrigation system with a lower pressure should be developed on the basis of this study.</description><identifier>ISSN: 1606-9749</identifier><identifier>EISSN: 1607-0798</identifier><identifier>DOI: 10.2166/ws.2010.618</identifier><language>eng</language><publisher>London: International Water Association</publisher><subject>Applied sciences ; Building economics. Cost ; Buildings. Public works ; Capital costs ; Case studies ; Computation methods. Tables. 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P</creatorcontrib><title>Design of drip irrigation lateral for optimum capital and operating cost</title><title>Water science & technology. Water supply</title><description>The drip irrigation system cost can be reduced effectively by using optimal design methods and decreasing the system pressure. In this paper, a two-stage optimum drip irrigation lateral design model is developed based on a new uniformity formula that includes hydraulic variation, emitter manufacture’s variation, and field roughness variation. The non-linear objective function minimizes the capital cost and the present values of the lateral operating cost. In the first stage, the pipe diameter and the emitter average pressure are taken as decision variables for the specified uniformity and lateral length. In the second stage, a commercially available pipe size that is very close to the diameter obtained in the first stage is selected. It has an allowable pressure that is a little more than or equal to 1.5 times of the maximum lateral pressure obtained in the first stage. The emitter average pressure is calculated for a known diameter. The model is applied to a case study in which the result indicates that a lateral with a larger diameter and the lower emitter average pressure can be economically justifiable. A drip irrigation system with a lower pressure should be developed on the basis of this study.</description><subject>Applied sciences</subject><subject>Building economics. Cost</subject><subject>Buildings. Public works</subject><subject>Capital costs</subject><subject>Case studies</subject><subject>Computation methods. Tables. 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The non-linear objective function minimizes the capital cost and the present values of the lateral operating cost. In the first stage, the pipe diameter and the emitter average pressure are taken as decision variables for the specified uniformity and lateral length. In the second stage, a commercially available pipe size that is very close to the diameter obtained in the first stage is selected. It has an allowable pressure that is a little more than or equal to 1.5 times of the maximum lateral pressure obtained in the first stage. The emitter average pressure is calculated for a known diameter. The model is applied to a case study in which the result indicates that a lateral with a larger diameter and the lower emitter average pressure can be economically justifiable. 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subjects | Applied sciences Building economics. Cost Buildings. Public works Capital costs Case studies Computation methods. Tables. Charts Design Drip irrigation Exact sciences and technology Hydraulic constructions Hydraulics Irrigation Irrigation networks Irrigation systems Lateral pressure Objective function Operating costs Optimization Pipes Pressure Roughness Structural analysis. Stresses Variation Water supplies |
title | Design of drip irrigation lateral for optimum capital and operating cost |
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