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Reducing electric energy consumption in linear Fresnel collector solar fields coupled to thermal desalination plants by optimal mirror defocusing

机译:通过优化镜面散焦来减少线性菲涅尔收集器太阳能场中耦合热脱盐厂的电能消耗

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摘要

In many parts of the world, desalination is the only viable and economic solution to the problem of fresh water shortage. The current commercial desalination technologies rely on fossil fuels and are thus associated with high greenhouse gas emissions that are a major cause of climatic changes. Solar thermal-driven multi-effect distillation with thermal vapor compression is a clean alternative to conventional desalination technologies. To comprehend this process, as well as its features and limitations, extensive modeling is required. In this work, we proposed a plant design based on a solar field with a linear Fresnel collector that supplies heat to a multi-effect distillation plant with thermal vapor compression. The solar desalination plant model is implemented in the Engineering Equation Solver (EES). The system performance is investigated and a control strategy for reducing electric pumping is proposed. Results showed that 1 m2 of the solar field produces 8.5 m3 of distillate per year. The proposed control strategy resulted in a 40% reduction in electric pumping energy. Our results highlight the versatility of the linear Fresnel collector when coupled with thermal desalination.
机译:在世界许多地方,淡化是解决淡水短缺问题的唯一可行且经济的解决方案。当前的商业淡化技术依赖于化石燃料,因此与高温室气体排放相关联,这是气候变化的主要原因。带有热蒸气压缩的太阳能热驱动多效蒸馏是传统脱盐技术的干净替代品。为了理解此过程及其特征和局限性,需要进行广泛的建模。在这项工作中,我们提出了基于太阳能场的线性菲涅尔集热​​器的装置设计,该装置通过热蒸气压缩为多效蒸馏装置提供热量。在工程方程求解器(EES)中实现了太阳能淡化工厂模型。研究了系统性能,并提出了减少电泵的控制策略。结果表明,每年1 m 2 的太阳能场产生8.5 m 3 的馏出液。提议的控制策略使电泵的能耗降低了40%。我们的结果突出了线性菲涅耳收集器与热脱盐一起使用时的多功能性。

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