首页> 外文期刊>Solar Energy >Effective design, theoretical and experimental assessment of a solar thermoelectric cooling-heating system
【24h】

Effective design, theoretical and experimental assessment of a solar thermoelectric cooling-heating system

机译:太阳能热电冷却-加热系统的有效设计,理论和实验评估

获取原文
获取原文并翻译 | 示例
       

摘要

This study performed a theoretical and experimental assessment of a solar thermoelectric cooling-heating system using photovoltaic (PV) collector in the weather conditions of Sanandaj, Iran. The thermoelectric cooling system was tested as an auxiliary system from 11:00 to 12:12 to reduce the power consumption of compression cooling system and to increase its coefficient of performance from 12:00 to 18:00. The results were reported for a thermoelectric system tested during the given period. The maximum voltage and current applied to the thermoelectric system were 12 V and 3.043 A, respectively. The coefficient of performance in this maximum input power was calculated to be 1. Total energy consumption of thermoelectric system and energy generation of PV collector from 11:00 to 12:12 were found to be 56.465 and 361.406 kJ, respectively. The minimum temperature of cooling chamber and maximum outlet water temperature of thermoelectric system at maximum input power consumption were 12 and 45 degrees C, respectively, and temperature of the hot and cold sides of thermoelectric module in this consumption power were 69 and -3 degrees C, respectively, which were found to be noticeable. The findings showed that the operation time, energy consumption and coefficient of performance of compression cooling system and thermoelectric hybrid cooling system were 16,380 s, 8636.8 kJ and 5.3 and 15,000 s, 7911 kJ and 5.4, respectively, indicating a better performance for the hybrid cooling system.
机译:这项研究对在伊朗Sanandaj的天气条件下使用光伏(PV)收集器的太阳能热电冷却加热系统进行了理论和实验评估。在11:00至12:12期间对热电冷却系统作为辅助系统进行了测试,以减少压缩冷却系统的功耗并将其性能系数从12:00提高至18:00。报告了给定期间内测试的热电系统的结果。施加到热电系统的最大电压和电流分别为12 V和3.043A。计算出该最大输入功率下的性能系数为1。发现从11:00到12:12的热电系统总能耗和PV集热器的总能耗分别为56.465 kJ和361.406 kJ。在最大输入功率消耗下,冷却室的最低温度和热电系统的最高出水温度分别为12和45摄氏度,在此消耗功率下,热电模块的热侧和冷侧的温度分别为69和-3摄氏度,分别被发现是值得注意的。结果表明,压缩冷却系统和热电混合冷却系统的运行时间,能耗和性能系数分别为16,380 s,8636.8 kJ和5.3和15,000 s,7911 kJ和5.4,表明混合冷却的性能更好系统。

著录项

相似文献

  • 外文文献
  • 中文文献
  • 专利
获取原文

客服邮箱:kefu@zhangqiaokeyan.com

京公网安备:11010802029741号 ICP备案号:京ICP备15016152号-6 六维联合信息科技 (北京) 有限公司©版权所有
  • 客服微信

  • 服务号