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Hydraulic Modeling and Engineering Design for a Somerset Pump Station and its Water Distribution System

机译:萨默塞特泵站及其配水系统的水力建模和工程设计

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Hydraulic modeling is now commonly used to help engineers to design pump stations and water transmission/distribution systems. In this paper, a case study of a Somerset water system in is elaborated how to modeling programs and tools to size pumps and distribution networks. The Somerset water system is proposed to provide drinking water from the to-be-upgraded Somerset pump station to its serving areas including three different pressure zones: 830, 730, and 790. This project is a part of the San Antonio Water System's (SAWS) district special projects and upgrades to the facility are necessary to support integration of the pump station into the SAWS network. This system includes, but not limited to, the Somerset pump station, water distribution network including ground and elevated storage tanks. The system has a design capacity of 5.441 million gallons per day (MGD) representing the maximum hourly demand of the system. Five steady state scenarios are evaluated in order to develop system head curves and hydraulic modeling data needed for sizing the new Somerset pump station: (1) 2017 maximum hour demand (MH); (2) 2017 Maximum Hour Demand + Fire Flow (MH+FF); (3) 2017 Maximum Daily Demand (MD); (4) 2017 MD with the lowest water level at the Somerset Pump Station Ground Storage Tanks (GST) and the highest water level at the highest Elevated Storage Tanks (high end of the system head curve); (5) 2017 MH+FF with the highest water level at the Somerset Pump Station Ground Storage Tanks (GST) and the lowest water level at the highest Elevated Storage Tanks (low end of the system head curve). In addition to meet Year 2017 flow requirements, other constraints were listed below per the SAWS Water System Modeling Standards and Practices: (a) for 2017 MH scenario, the minimum pressure should be 35 psi; and (b) for 2017 MH+FF scenario, the minimum pressure should be 25 psi. Based the hydraulic modeling results and generated system head curves, the recommended design duty point for the four new Somerset Pump Station pumps is (1.813 mgd = 1259 gpm, 270 ft). The 2017 MH scenario minimum pressure will be 37.376 psi (>35 psi as required by SAWS standards) and the MH+FF scenario minimum pressure is 26.255 psi (> 25 psi as required by SAWS standards).
机译:现在,水力模型通常用于帮助工程师设计泵站和输水/分配系统。在本文中,对萨默塞特水系统的案例研究进行了阐述,详细介绍了如何对程序和工具进行建模以对泵和分配网络进行规模估算。建议使用萨默塞特水系统将饮用水从待升级的萨默塞特泵站输送到其服务区域,其中包括三个不同的压力区:830、730和790。该项目是圣安东尼奥供水系统(SAWS)的一部分)地区特殊项目和对设施的升级是必要的,以支持将泵站集成到SAWS网络中。该系统包括但不限于萨默塞特泵站,包括地面储水箱和高架储水箱的配水管网。该系统的设计能力为每日544.1万加仑(MGD),代表了系统的最大小时需求。为了建立新萨默塞特泵站的尺寸所需的系统扬程曲线和水力模型数据,评估了五个稳态方案:(1)2017年最大小时需求(MH); (2)2017年最大小时需求+火流量(MH + FF); (3)2017年最大每日需求量(MD); (4)2017年MD的萨默塞特泵站地面储罐(GST)的水位最低,最高的高架储罐的水位最高(系统扬程曲线的高端); (5)2017 MH + FF,萨默塞特泵站地面储罐(GST)的水位最高,而高架储罐的最低水位(系统扬程曲线的低端)。除了满足2017年的流量要求外,以下根据SAWS水系统建模标准和惯例列出了其他限制条件:(a)对于2017年MH情景,最低压力应为35 psi; (b)对于2017年MH + FF情景,最小压力应为25 psi。根据水力模型结果和生成的系统扬程曲线,四个新的萨默塞特泵站泵的推荐设计工作点为(1.813 mgd = 1259 gpm,270 ft)。 2017年MH情景中的最小压力将为37.376 psi(根据SAWS标准的要求为> 35 psi),而MH + FF情景中的最小压力将为26.255 psi(根据SAWS的标准要求为> 25 psi)。

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