不同因素对反向电渗析发电性能的影响

Yiwei Wang, Jiabin Guo, Yife Wu, Xiaolian Li, Mei Li, Chenxu Zhao, C. Gao
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摘要

反电渗析(RED)是一种将盐度梯度能转化为电能的无污染能源技术。本文通过基于电化学工作站平台的线性扫描伏安法(LSV)测量,实验研究了不同影响因素对发电性能的影响。结果表明:随着电池对数量的增加,开路电压和堆叠电阻升高,而红色堆叠的最大功率密度不断降低;当电池对数为5时,获得最大功率密度的最优值。无论溶液浓度比是否恒定,溶液浓度的增加都会导致堆叠电阻降低,功率密度逐渐升高。最大功率密度为120-4 g/L。最后,随着流量的增大,开路电压不变,堆叠电阻减小,相应的最大功率密度不断增大。当流量为40 L/h时,RED系统的发电性能最佳。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The influence of different factors on the power-generation performance of reverse electrodialysis
Reverse electrodialysis (RED) is a nonpolluting energy technology which can convert the salinity gradient energy into electricity. In this paper, the influence of different influencing factors on the power-generation performance is studied experimentally via linear sweep voltammetry (LSV) measurement based on the electrochemical workstation platform. The results show that the increase in the number of cell pairs makes the open circuit voltage and stack resistance raise while the maximum power density of RED stack decreases continuously. The optimal value of maximum power density is obtained when the cell pair number is 5. Regardless of whether the solution concentration ratio is constant or not, increasing the solution concentration will cause the stack resistance to reduce and the power density gradually rises. The highest maximum power density is found at 120–4 g/L. Finally, as the flow rate increases, the open circuit voltage remains unchanged and the stack resistance decreases, so correspondingly the maximum power density increases constantly. When the flow rate is 40 L/h, the RED system has the best power generation performance.
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