An Energy Production System Powered by Solar Heat with Biogas Dry Reforming Reactor and Solid Oxide Fuel Cell

A. Nishimura, Ryota Sato, E. Hu
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Abstract

In this paper, an energy system consisting of solar collector, biogas dry reforming reactor and solid oxide fuel cell (SOFC) has been proposed. The heat produced from the concentrating solar collector is used to drive a biogas dry reforming reactor in order to produce H 2 as a fuel for SOFC, in such as system. The aim of this study is to clarify the impact of climate data on the performance of solar collector with various sizes/designs. The temperature of heat transfer fluid produced by the solar collector is calculated by adopting the climate data for Nagoya city in Japan in 2021. The amount of H 2 produced from the biogas dry reforming reactor and the power generated by SOFC were simulated. The results show the temperature of heat transfer fluid (T fb ) and T fb ratio (a) based on the length of absorber (dx) = 1 m have a peak near the noon following the trend of solar intensity (I). Results also revealed that a increases with increase in dx. It is found that the differences of T fb and a between dx = 2 m and dx = 3 m are larger than those between dx = 1 m and dx = 2 m. It is revealed that T fb and a are higher in spring and summer. dx = 4 m is the optimum length of solar absorber. The amount of H 2 produced from the biogas dry reforming reactor as well as the power generated by SOFC is the highest in August, resulting that it is prefer to produce H 2 and to generate SOFC in summer.
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基于沼气干式重整反应器和固体氧化物燃料电池的太阳能能源生产系统
提出了一种由太阳能集热器、沼气干式重整反应器和固体氧化物燃料电池(SOFC)组成的能源系统。聚光太阳能集热器产生的热量用于驱动沼气干式重整反应器,以生产氢气作为SOFC的燃料。本研究的目的是阐明气候数据对不同尺寸/设计的太阳能集热器性能的影响。采用日本名古屋市2021年的气候数据,计算了太阳能集热器产生的传热流体的温度。模拟了沼气干式重整反应器的氢气产出量和SOFC的发电功率。结果表明:在吸收体长度(dx) = 1 m条件下,传热流体温度(tfb)和tfb比值(a)随太阳强度(I)的变化趋势在中午附近出现峰值,且a随dx的增大而增大。发现在dx = 2 m和dx = 3 m之间,tfb和a的差异大于dx = 1 m和dx = 2 m之间的差异。结果表明,tfb和a在春季和夏季较高。Dx = 4 m是太阳能吸收器的最佳长度。沼气干式重整反应器产氢量和SOFC发电量在8月份最高,因此更倾向于在夏季产氢和产SOFC。
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