基于蛭石的建筑太阳能热化学蓄热系统研究

Q1 Engineering Future Cities and Environment Pub Date : 2022-01-01 DOI:10.5334/fce.153
Yanan Zhang, Ziwei Chen, C. Kutlu, Yuehong Su, S. Riffat
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引用次数: 1

摘要

工业过程和建筑部门(例如,用于空间和水加热)占热消耗总能源的大部分。尽管化石燃料仍在供热部门占主导地位,但可再生供热技术最近已得到广泛应用。热化学储能(TES)是解决可再生能源供应与最终用户需求之间不匹配的一项有前途的先进技术。本文提出了一种新的基于蛭石的太阳能热化学储热(VS-THS)系统,用于家庭空间供暖,也可以克服间歇性挑战,实现太阳能的长期储存。建立了一个小规模的原型来评估所提出的系统的储能性能,该系统使用了ChainStore专利面板,以适应蛭石基复合材料。连锁店安排的独特设计提供了良好的传热和传质,并在改变建筑能源需求的情况下,为系统调整提供了良好的灵活性。由于浸取mgso4和cacl2的蛭石基吸附剂具有再生温度低(63℃)和储能密度高(253.8 kWh/m 3)的特点,实验中选择其作为THS复合材料。实验结果表明,所提出的VS-THS用于家庭空间采暖是可行的,最高空间供热温度为37.6℃,反应过程中的体系COP为。此外,实验结果还表明,蛭石复合材料浸没mgso4和cacl2,具有良好的吸水性能。这个拟议的VS-THS概念可以根据不同的建筑应用进行调整。
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Investigation on a Vermiculite-Based Solar Thermochemical Heat Storage System for Building Applications
Industrial processes and the building sector (e.g., for space and water heating) are responsible for the majority of the total energy consumed for heat. Although fossil fuels remain to dominate the heating sector, renewable heating technologies have been lately widely deployed. Thermochemical energy storage (TES) can be a promising advanced technology in addressing the mismatch between renewable energy supplies and the end-user’s demand. In this paper, a novel Vermiculite-based Solar Thermochemical Heat Storage (VS-THS) system was proposed for domestic space heating applications, which could also overcome the intermittency challenges and realise long-term solar energy storage. A small-scale prototype was set up to evaluate the energy storage performance of the proposed system using a patented ChainStore panel to accommodate vermiculite-based composite. The unique design of the ChainStore arrangement offers great heat and mass transfer and good flexibility for system resizing in the case of varying the building energy demand. Due to the low regeneration temperature (63 °C) and high energy storage density (253.8 kWh/m 3 ) of the vermiculite-based adsorbent impregnated with MgSO 4 and CaCl 2 , it was chosen as the THS composite in the experiments. The experimental results showed that the proposed VS-THS is feasible for domestic space heating, with the highest space heating supply temperature of 37.6 °C, and the system COP in the reaction process is In addition, the results also demonstrate that the composite of vermiculite impregnated with MgSO 4 and CaCl 2 , with a good water adsorption performance. This proposed concept of VS-THS could be sized for different building applications.
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来源期刊
Future Cities and Environment
Future Cities and Environment Engineering-Architecture
CiteScore
3.10
自引率
0.00%
发文量
7
审稿时长
17 weeks
期刊最新文献
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