热电模块用直接接触冷却塔和发电用抛物线槽集热器的性能评价

Kenneth S. Limpahan, Rommel R. Viña, F. B. Alagao
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引用次数: 2

摘要

热电发电以其清洁能源的发电方式而备受关注。它具有将可再生能源的热量转化为直流电的潜力,这将取代我们对化石燃料的依赖。本文介绍了一种由提供直接水冷却的冷却塔和在热电模块上提供高热源的太阳能集热器组成的热电发电系统。8个尺寸为40mm × 40mm × 3.5mm串联的热电模块夹在抛物线槽集热器吸收板与方管内冷却水之间。利用SolidWorks Flow Simulation软件对冷却塔的热工性能进行了评估,并进行了稳态和瞬态分析的实验验证。实验结果表明,该冷却塔具有以2.51/min的速度将100℃的热水降至28℃的冷水的热能力。热电模块之间的温差为97°C,其中冷侧保持28°C,热侧保持125°C。它在12.7伏电压下产生21瓦的功率。热电技术在可再生和可持续发电方面具有巨大的潜力,特别是在与冷却塔集成用于中规模和大型热电发电时。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Performance evaluation of direct-contact cooling tower used on thermoelectric module and parabolic trough collector for power generation
Thermoelectric has gained attention for its clean energy generation. It has the potential of converting heat from renewable energy into direct current electricity which will replace our dependency on fossil fuels. This paper presents thermoelectric power generation system which consists of cooling tower that provides direct water cooling and solar thermal collector that provides high heat source on thermoelectric modules. Eight (8) thermoelectric modules connected in series with 40mm × 40mm × 3.5mm in size were sandwich between the absorber plate from parabolic trough collector and cooling water inside the square tube. Cooling tower thermal performance was evaluated using SolidWorks Flow Simulation software and experimental validation in steady-state and transient analysis. Experiment results show that the cooling tower has a thermal capability of lowering 100°C heated water to 28°C cold water at 2.51/min. A temperature difference of 97°C across the thermoelectric module was achieved with 28°C maintained on the cold side and 125°C on the hot side. It generated up to 21Watts at 12.7Volts. Thermoelectric technology has a significant potential for renewable and sustainable power generation especially when integrated with cooling towers for medium scale and large scale thermoelectric power generation.
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