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Experimental study of a solar adsorption refrigeration system integrated with a compound parabolic concentrator based on an enhanced mass transfer cycle in Kunming, China

机译:基于增强的传质循环的复合抛物面聚光器集成的太阳能吸附制冷系统的实验研究

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摘要

A new solar adsorption refrigeration system integrated with a compound parabolic concentrator (CPC) adsorber was proposed. Comparative experiments were conducted to investigate the system behaviour with the enhanced and natural mass transfer cycle under different weather conditions in Kunming, China. The parameter lambda (the refrigerant utilization ratio) was defined to describe and compare the effective utilization ratio of the refrigerant in a refrigeration cycle for some different adsorption refrigeration system with a different quantity of the adsorbent and refrigerant. The results show that the system performance level with the enhanced mass transfer cycle is always higher than the system performance level with the natural mass transfer cycle under different weather conditions. On sunny day with a clear sky, the volume of the desorbed refrigerant and the COPsolar with the enhanced mass transfer cycle were increased by 39.2% and 39.0%, respectively, compared with the natural mass transfer cycle. The refrigerant utilization ratio in the CPC adsorption refrigeration system could be improved by 32.5% and 51.2% for the natural and enhanced mass transfer cycle compared with the non-CPC adsorption refrigeration system, respectively. While on sunny day with a partly cloudy sky, the volume of the desorbed refrigerants and the COPsolar with the enhanced mass transfer cycle were improved by 51.7% and 52.8%, respectively, compared with the natural mass transfer cycle. And the refrigerant utilization ratio in the CPC adsorption refrigeration system improved by 33.5% and 61.2%, respectively, for the natural and enhanced mass transfer cycle compared with the non-CPC adsorption refrigeration system.
机译:提出了一种新的与复合抛物线集中器(CPC)吸附器集成的太阳能吸附制冷系统。进行了比较实验,以研究中国昆明市在不同天气条件下具有增强的传质循环和自然传质循环的系统行为。定义参数λ(制冷剂利用率)来描述和比较制冷剂在某些不同的吸附式制冷系统中使用不同数量的吸附剂和制冷剂的制冷循环中的有效利用率。结果表明,在不同天气条件下,具有较高传质周期的系统性能水平始终高于具有自然传质周期的系统性能水平。在晴朗的天空下,与自然传质循环相比,随着传质循环增强,解吸的制冷剂和COPsolar的体积分别增加了39.2%和39.0%。与非CPC吸附式制冷系统相比,CPC吸附式制冷系统中自然和增强的传质循环的制冷剂利用率分别提高了32.5%和51.2%。在晴天和部分多云的天空下,与自然传质循环相比,随着传质循环增强,解吸的制冷剂和COPsolar的体积分别提高了51.7%和52.8%。与非CPC吸附式制冷系统相比,CPC吸附式制冷系统中自然和增强的传质循环的制冷剂利用率分别提高了33.5%和61.2%。

著录项

  • 来源
    《Solar Energy》 |2020年第1期|37-46|共10页
  • 作者

  • 作者单位

    Yunnan Normal Univ Solar Energy Res Inst Kunming 650500 Yunnan Peoples R China;

  • 收录信息 美国《科学引文索引》(SCI);美国《工程索引》(EI);美国《生物学医学文摘》(MEDLINE);
  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类
  • 关键词

    Adsorption refrigeration; Activated carbon-methanol; CPC; Enhanced mass transfer cycle;

    机译:吸附式制冷;活性炭-甲醇;每次点击费用;延长传质周期;

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