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Numerical investigation of key parameters of the porous media combustion based Micro-Thermophotovoltaic system

机译:基于微热光伏系统的多孔介质燃烧关键参数的数值研究

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Power generation with porous media driven Micro-Thermophotovoltaic (MTPV) was investigated and effects of changes to key parameters of the system investigated. The micro combustor had the dimensions of length–15 mm, width–10 mm, height–1 mm and wall thickness of 0.5 mm. The distance between the outside wall of combustor and the TPV cell was fixed at 1 mm. Variation in distance from 1 to 6 mm between the outside wall of the combustor and the thermophotovoltaic cell (TPV cell) caused a reduction of 13.75% and 1.4% in the radiation heat transfer efficiency and the TPV cell conversion efficiency respectively. An increase in the mixture flow rate from 300 mL/min to 1800 mL/min caused an increase in the radiation heat transfer efficiency, TPV cell conversion efficiency and the total system efficiency. As the flow rate increased, the system’s power output also increased. At 600 mL/min, the output power was 560 mW but rose to 3.2 W at the flow rate of 1800 mL/min. The cooling load of the system showed a linear growth as the flow rate increased. At 1800 mL/min the cooling load of the system was 12.4 W which is three times the cooling load at 900 mL/min.
机译:研究了多孔介质驱动的微热光伏(MTPV)的发电,并研究了系统关键参数变化的影响。微型燃烧器的尺寸为长15mm,宽10mm,高1mm,壁厚0.5mm。燃烧器外壁与TPV电池之间的距离固定为1 mm。燃烧器的外壁与热光伏电池(TPV电池)之间的距离变化为1至6mm,导致辐射传热效率和TPV电池转换效率分别降低了13.75%和1.4%。混合物流速从300µmL / min增加到1800 mL / min,导致辐射传热效率,TPV电池转换效率和整个系统效率提高。随着流量增加,系统的功率输出也增加。在600 mL / min时,输出功率为560 mW,但在1800 mL / min的流速下升至3.2 W。随着流量的增加,系统的冷却负荷呈线性增长。在1800 mL / min时,系统的冷却负荷为12.4 W,是900 mL / min时冷却负荷的三倍。

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