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Development of an ultra-high capacity hydrocarbon fuel based micro thermoelectric power generator

机译:超高容量碳氢化合物燃料基微电电力发电机的研制

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The objective of the present study is to develop a fossil-fuel based alternative energy storage system for electrochemical batteries. A novel perforated-plate based microcombustor, used as a heat source for thermoelectric power generation, is developed in the present work. It has been shown to produce a high heat-flux with improved temperature uniformity. A superior thermal performance is achieved due to simultaneous flame-flame interaction and flame-impingement on the combustor walls. The performance of the microcombustor, in terms of heat-flux and surface temperature distribution, is compared with a theoretical model developed using the inverse heat conduction technique. A high heat-flux of 56 kW/m2 with a significantly lower coefficient of variance is achieved. The performance of the integrated system is experimentally investigated through detailed thermal and flame stability characteristics. An electric power output of 21.2, 22.4 and 23.5 W, with an overall conversion efficiency of 3.01, 2.82 and 2.68 %, is achieved for mixtures with equivalence ratios of 0.8, 0.9 and 1.0 respectively at a mixture velocity of 1.0 m/s. The novelty of the present study lies in the development of a high power system and its performance characterisation at various operation conditions, making it a suitable alternative for various standalone, rural, and portable applications.
机译:本研究的目的是开发一种用于电化学电池的化石燃料的替代储能系统。在本工作中开发了一种新颖的穿孔板基微孔,用作热电发电的热源。已经显示出具有改善的温度均匀性的高热量通量。由于燃烧器壁的同时火焰 - 火焰相互作用和火焰冲击,因此实现了优异的热性能。在热通量和表面温度分布方面,微磁烧器的性能与使用反导热技术开发的理论模型进行比较。实现了56 kW / m 2的高热量,实现了显着较低的方差系数。通过详细的热和火焰稳定性特征进行实验研究了集成系统的性能。 21.2,22.4和23.5W的电力输出,总转化效率为3.01,2.82和2.68%,用于分别在1.0m / s的混合速度下的等效比为0.8,0.9和1.0的混合物。本研究的新颖性在于在各种操作条件下开发高功率系统及其性能表征,使其成为各种独立,农村和便携式应用的合适替代方案。

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