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Thermodynamic performance assessment of boron based thermochemical water splitting cycle for renewable hydrogen production

机译:基于硼的热力学性能评估,用于可再生氢气生产的热化学水分分裂循环

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The present study is related with the thermodynamic performance assessment of renewable hydrogen production through Boron thermochemical water splitting cycle. Therefore, all step efficiencies and overall cycle efficiency are calculated based on complete reaction. Additionally, a parametric study is conducted to determine the effect of the reference environment temperature on the overall cycle efficiency. In this regard, exergy efficiencies, exergy destruction rates and also inlet and outlet exergy rates of the cycle are calculated and presented for various reference temperatures. The exergy efficiency of the cycle is calculated as 0.4393 based on complete reaction and occurs at 298 K. This study has shown that Boron thermochemical water splitting cycle has a great potential due to cycle performance. As a result, Boron based thermochemical water splitting cycle can help achieve better environment and sustainability due to high exergetic efficiency. By the way, economic and technical issues of the storage and transportation of the hydrogen can find a proper solution if the hydrogen production reaction of the Boron thermochemical water splitting cycle takes place on-board of a vehicle. (C) 2020 Hydrogen Energy Publications LLC. Published by Elsevier Ltd. All rights reserved.
机译:本研究与通过硼热化学水分裂循环进行可再生氢生产的热力学性能评估有关。因此,基于完全反应计算所有步进效率和总循环效率。另外,进行参数研究以确定参考环境温度对整体循环效率的影响。在这方面,计算并呈现出循环的高度效率,漏洞破坏率以及入口和出口进出率,用于各种参考温度。基于完全反应的循环的漏洞效率计算为0.4393,并在298k发生。该研究表明,硼热化学水分裂循环由于循环性能而具有很大的潜力。因此,基于硼的热化学水分裂循环可以有助于实现由于高前进效率的更好的环境和可持续性。顺便说一下,如果硼热化学水分裂循环的氢气产生反应发生在车辆上的氢气产生反应,则氢气的储存和运输的经济和技术问题可以找到适当的解决方案。 (c)2020氢能源出版物LLC。 elsevier有限公司出版。保留所有权利。

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