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首页> 外文期刊>Membranes >The Effect of Feed Solution Temperature on the Power Output Performance of a Pilot-Scale Reverse Electrodialysis (RED) System with Different Intermediate Distance
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The Effect of Feed Solution Temperature on the Power Output Performance of a Pilot-Scale Reverse Electrodialysis (RED) System with Different Intermediate Distance

机译:进料溶液温度对中间距离不同的中试逆电渗析(RED)系统功率输出性能的影响

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Membrane-based reverse electrodialysis (RED) can convert the salinity gradient energy between two solutions into electric power without any environmental impact. Regarding the practical application of the RED process using natural seawater and river water, the RED performance depends on the climate (temperature). In this study, we have evaluated the effect of the feed solution temperature on the resulting RED performance using two types of pilot-scale RED stacks consisting of 200 cell pairs having a total effective membrane area of 40 m 2 with different intermediate distances (200 μm and 600 μm). The temperature dependence of the resistance of the solution compartment and membrane, open circuit voltage (OCV), maximum gross power output, pumping energy, and subsequent net power output of the system was individually evaluated. Increasing the temperature shows a positive influence on all the factors studied, and interesting linear relationships were obtained in all the cases, which allowed us to provide simple empirical equations to predict the resulting performance. Furthermore, the temperature dependence was strongly affected by the experimental conditions, such as the flow rate and type of stack, especially in the case of the pilot-scale stack.
机译:基于膜的反向电渗析(RED)可以将两种溶液之间的盐度梯度能量转换为电能,而不会受到任何环境影响。关于使用天然海水和河水的RED工艺的实际应用,RED性能取决于气候(温度)。在这项研究中,我们使用两种中试规模的RED堆叠(包括200个细胞对,总有效膜面积为40 m 2,中间距离不同(200μm))对进料溶液温度对所得RED性能的影响进行了评估。和600μm)。分别评估了溶液室和膜的电阻,开路电压(OCV),最大总功率输出,泵送能量以及系统随后的净功率输出的温度依赖性。温度升高对所有研究的因素均显示出积极影响,并且在所有情况下均获得了有趣的线性关系,这使我们能够提供简单的经验方程式来预测最终的性能。此外,温度依赖性受实验条件(例如流量和烟囱类型)的强烈影响,特别是在中试规模烟囱的情况下。

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