帕洛阿尔维德水循环模型(PVWCM) -开发一个综合的多物理和经济模型,用于有效的水管理

B. Middleton, P. Brady, Jeffrey A. Brown, Serafina T. Lawles
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摘要

在美国,水资源管理已成为热电发电的关键。家庭、农业和工业用水对稀缺水资源的需求不断增加,影响了发电厂的用水供应。特别是,美国西南部的人口正在增长,水资源压力过大。索诺兰沙漠帕洛阿尔维德发电站(PV)的工程和管理团队长期以来一直了解这个问题,并于2017年开始与桑迪亚国家实验室合作,制定PV的长期水战略。作为该项目的一部分,桑迪亚和帕洛阿尔维德的工作人员开发了一个全面的软件工具,可以模拟PV(电站冷却)水循环的各个方面。这个软件工具——帕洛阿尔维德水循环模型(PVWCM)——跟踪了水从流入到工厂的过程,通过在9个冷却塔中的一个或8个蒸发池中的一个蒸发。PVWCM是使用称为系统动力学的过程开发的。开发PVWCM是为了允许对各种工厂操作策略进行场景比较。
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The Palo Verde Water Cycle Model (PVWCM) – Development of an Integrated Multi-Physics and Economics Model for Effective Water Management
Water management has become critical for thermoelectric power generation in the US. Increasing demand for scarce water resources for domestic, agricultural, and industrial use affects water availability for power plants. In particular, the population in the Southwestern part of the US is growing and water resources are over-stressed. The engineering and management teams at the Palo Verde Generating Station (PV) in the Sonoran Desert have long understood this problem and began a partnership with Sandia National Laboratories in 2017 to develop a long-term water strategy for PV. As part of this program, Sandia and Palo Verde staff have developed a comprehensive software tool that models all aspects of the PV (plant cooling) water cycle. The software tool — the Palo Verde Water Cycle Model (PVWCM) — tracks water operations from influent to the plant through evaporation in one of the nine cooling towers or one of the eight evaporation ponds. The PVWCM has been developed using a process called System Dynamics. The PVWCM is developed to allow scenario comparison for various plant operating strategies.
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