德州南水北調(diào)續(xù)建配套工程方案優(yōu)化設(shè)計研究
[Abstract]:Dezhou city water resources supply and demand contradiction is prominent, belongs to the resources water shortage area. The shortage of water resources has seriously restricted the rapid development of economy and society, at the same time appeared the problem of overrun. The continued construction of the South-to-North Water transfer Project in Texas is an important part of the first phase of the South-to-North Water transfer Project of the Eastern Route of the South-to-North Water transfer Project. It is also an engineering construction project in which the benefits of the South-to-North Water transfer Project can be fully brought into play. The combination of supporting project with drinking water safety project in Dezhou city and the construction of water network in Dezhou city is of great significance in alleviating the shortage of water resources, improving the water environment, speeding up the development of industry and agriculture, improving people's livelihood and ensuring safe water use. Before the construction of the project, the key to reduce the project cost, ensure the quality and progress, and ensure the reasonable and safe development of the project is to select the scientific and reasonable design indexes such as the engineering route, the location of the building, the material and so on. In this paper, the following three aspects of research are carried out in conjunction with the continued construction of Dezhou South-to-North Water transfer Project: (1) understanding the natural environment, such as social economy, hydrology, geology and so on in the urban area of Texas; Based on the analysis of the existing problems of water resources in the urban area of Texas and the general situation of the South-to-North Water transfer Project, this paper expounds the necessity of the water transfer project, and analyzes the task and scale of the project. (2) put forward different water supply line scheme and pipe project, take the economic factor, environment factor and safety factor of engineering construction as the main evaluation index, set up the comprehensive evaluation index system of the supporting project construction scheme. Projection pursuit classification model and entropy weight coefficient evaluation model are introduced to select and evaluate different schemes. In the course of calculation, in order to reduce the interference of many experts on the evaluation results, the principal component analysis method is used to deal with the experts in advance. (3) from the economic benefit of the project, The prospect of comprehensive development and utilization of water supply project is prospected from three aspects: social benefit and ecological benefit. The results show that the projection value and the entropy weight coefficient are at the highest level of the three schemes, reaching 1.7509 and 1.3124 respectively. In the process of pipe selection, the projection value and entropy weight coefficient of sand filled glass pipe are the highest, reaching 1.8931 and 1.3931 respectively. Therefore, scheme 1, that is, upstream pipeline along the river beach, subtractive river beach, switch river beach, the two downstream of the pipeline along the river beach and provincial road S353 as the optimal comprehensive conditions of the optimal water supply line scheme; The sand-filled glass pipe is the best pipe under the comprehensive conditions. On the one hand, the results of the study provide a scientific and technical guarantee for the smooth implementation of the supporting project for the continued construction of the South-to-North Water transfer Project in the urban area of Texas. On the other hand, it also provides practical basis and useful reference for the rational application of statistical model in water conservancy project selection in the future.
【學位授予單位】:中國海洋大學
【學位級別】:碩士
【學位授予年份】:2014
【分類號】:TV68
【參考文獻】
相關(guān)期刊論文 前10條
1 薛倉生,金菊良,魏一鳴;水利工程方案優(yōu)選的投影尋蹤方法[J];長江科學院院報;2005年04期
2 羅世良;陳振存;;基于投影尋蹤模型的節(jié)水灌溉工程方案優(yōu)選[J];地下水;2009年05期
3 杜紅磊;計永華;陳建;;主成分分析在施工方案優(yōu)選中的應(yīng)用[J];硅谷;2010年04期
4 陳榮淋;曾志興;;地下工程圍巖穩(wěn)定性評價的熵權(quán)系數(shù)法[J];華僑大學學報(自然科學版);2008年03期
5 楊開云;王亮;朱峰;馮衛(wèi);;改進的熵權(quán)模糊評價模型在水利工程中的應(yīng)用[J];節(jié)水灌溉;2007年08期
6 趙冬梅,張玉清,馬建峰;熵權(quán)系數(shù)法應(yīng)用于網(wǎng)絡(luò)安全的模糊風險評估[J];計算機工程;2004年18期
7 舒歡;劉文娜;;基于組合賦權(quán)—TOPSIS模型的水利工程建設(shè)方案優(yōu)選決策方法[J];工程管理學報;2013年04期
8 馬靖忠;;基于熵權(quán)系數(shù)法的房地產(chǎn)市場比較估價模型研究[J];企業(yè)經(jīng)濟;2011年06期
9 胡亞蘭;黃利;;水利施工企業(yè)績效評價[J];企業(yè)導報;2009年11期
10 歐建鋒;葉健;程吉林;;主成分分析法在江蘇水利現(xiàn)代化評價中的應(yīng)用[J];人民長江;2010年02期
本文編號:2329205
本文鏈接:http://www.sikaile.net/kejilunwen/shuiwenshuili/2329205.html