A small-scale silica gel-water adsorption system for domestic air conditioning and water heating by the recovery of solar energy

A small-scale silica gel-water adsorption system for domestic air conditioning and water heating by the recovery of solar energy
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太阳能回收家用空调及热水小型硅胶水吸附系统

DOI:
10.1007/s11708-019-0623-1
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发表时间:
2020-06
影响因子:
2.9
通讯作者:
Wang L. W.
Wang L. W.
中科院分区:
工程技术3区
文献类型:
--
作者:
Yu Y.;Pan Q. W.;Wang L. W.

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本文提出并研究了一种利用太阳能实现家用空调与热水联产的小型模块化硅胶-水吸附系统。采用两个吸附器之间的热量回收过程和两个蒸发器之间的质量回收过程来提高整体制冷和加热性能。首先,在不同的模式下(不同的质量回收,热回收和热电联产时间)的吸附系统进行测试,以确定最佳的操作条件。在此基础上,研究了不同传热流体温度下的家用供冷与热水效应的热电联产性能。结果表明,热电联产、质量回收和热量回收的最佳时间分别为600 s、40 s和40 s。当热水入口温度在85 ℃左右时,最大制冷功率和制热功率分别为8.25 kW和21.94 kW。在冷却水温度为35°C的条件下,系统的最大COPc、COPh和SCP分别为0.59、1.39和184.5 W/kg。
A small-scale silica gel-water adsorption system with modular adsorber, which utilizes solar energy to achieve the cogeneration of domestic air conditioning and water heating effect, is proposed and investigated in this paper. A heat recovery process between two adsorbers and a mass recovery process between two evaporators are adopted to improve the overall cooling and heating performance. First, the adsorption system is tested under different modes (different mass recovery, heat recovery, and cogeneration time) to determine the optimal operating conditions. Then, the cogeneration performance of domestic cooling and water heating effect is studied at different heat transfer fluid temperatures. The results show that the optimal time for cogeneration, mass recovery, and heat recovery are 600 s, 40 s, and 40 s, respectively. When the inlet temperature of hot water is around 85°C, the largest cooling power and heating power are 8.25 kW and 21.94 kW, respectively. Under the condition of cooling water temperature of 35°C, the obtained maximum COPc, COPh, and SCP of the system are 0.59, 1.39, and 184.5 W/kg, respectively.
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