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Dimensionless model based on dual phase approach for predicting thermal performance of thermocline energy storage system: Towards a new approach for thermocline thermal optimization

机译:基于双相方法的维度模型预测热插管能量存储系统的热性能:朝向热湿润热优化的新方法

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The focus of this study is the development of a dimensionless model that allows a better understanding of the thermocline storage system behavior. The proposed model is based on a dual phase approach. We had identified four remarkable dimensionless groups of parameters which control the thermocline system performances. The influence of each dimensionless group of parameters has been analyzed separately to understand its influence on the overall thermocline storage system performance. During this investigation, three concepts are deeply analyzed: the thermocline zone thickness, dimensionless discharge time and discharge efficiency. Using this model, we have demonstrated that, for each combination HTF/TESM, a universal optimum can be highlighted, which makes it possible to find, according to a given specification, the optimal configuration of the storage tank. Based on the obtained results, we had proposed a new reduced model based on dual-phase approach for rapid calculation of optimal sizing of a thermocline storage tank. The proposed method requires no discretization method and provides accuracy similar to those of the dual phase model but with a drastically reduced computation effort. (C) 2020 Elsevier Ltd. All rights reserved.
机译:本研究的重点是开发无量纲模型,可以更好地理解热量储存系统行为。所提出的模型基于双相方法。我们已经确定了控制热量系统性能的四个显着无量纲的参数组。分别分别分析了每个无量纲参数的影响,以了解其对整体热液储存系统性能的影响。在这次调查中,深度分析了三种概念:热量区域厚度,无量度放电时间和放电效率。使用该模型,我们已经证明,对于每个组合HTF / TESM,可以突出显示通用最佳,这使得可以根据给定规范找到存储罐的最佳配置。基于所得的结果,我们提出了一种基于双相方法的新型模型,以快速计算热量储罐最佳施胶。所提出的方法不需要离散化方法,并提供与双相模型类似的准确性,而是通过急剧减少的计算工作。 (c)2020 elestvier有限公司保留所有权利。

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