对液体干燥剂制冷和除湿能力贮存环节进行了分析,给出一种太阳能干燥剂再生转换装置传热传质数学模型.该储能方式没有因储能介质与周围环境存在温差产生的冷热损失,对CaCl2和LiCl等典型液体干燥剂的分析表明,理想情况下,二者的储能密度可达1000 MJ/m3和1400 MJ/m3,远大于水和冰的蓄能密度,储能密度还受太阳辐射、面盖间距、环境条件等因素影响.
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