Active building envelope system (ABE): Wind and solar-driven ventilation, electricity and heat pump

Bor-Jang Tsai, Chien-Ho Lee
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引用次数: 2

Abstract

This study takes the ventilation into consideration, making the active building envelope (ABE) system more close to the realistic application conditions. The ABE system is comprised of a photovoltaic unit (PV unit) and a thermoelectric heat pump unit (TE unit). The PV unit consists of photovoltaic cells, which convert solar radiation energy into electrical energy. The TE unit consists of thermoelectric heaters/coolers (referred to here onwards as TE coolers), which convert electrical energy into thermal energy, or the reverse. The PV and the TE units are integrated within the overall ABE enclosure. The new mechanism of a hybrid system was proposed. A ducted wind turine will be integrated with the ABE system becoming dual core. Then the analytic model of original ABE system has to be revised and analytic solution will be resulted and verified by the numerical solution of CFD. The ducted wind mill will provide air conditioning and power the ABE system, to higher the thermal efficiency of the heat sinks of TE system. Numerical and experimental works will be investigated. a building installed the ABE system wind, solar driven, bypass the windmill flow as a air flow, ambient temperature, To is equal to 35 °C and indoor temperature, Ti is 28 °C. Numerical results show the Ti will decrease 2 °C when the ABE operating with heat sinks, without fan. As fan is opened, strong convective heat transfer, Ti will decrease approximately 4 to 5 °C. We hope findings of this study can make the dream of healthy living comfortable room come true.
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主动建筑围护结构系统(ABE):风能和太阳能驱动通风,电力和热泵
本研究将通风考虑在内,使主动围护结构(ABE)系统更接近于实际应用条件。ABE系统由光伏单元(PV unit)和热电热泵单元(TE unit)组成。光伏单元由光伏电池组成,将太阳辐射能转化为电能。TE装置由热电加热器/冷却器(以下简称为TE冷却器)组成,它将电能转换为热能,或反之。光伏和TE单元集成在整个ABE机箱中。提出了混合系统的新机理。导管式风力涡轮机将与ABE系统集成,成为双核心。然后对原ABE系统的解析模型进行修正,得到解析解,并用CFD数值解进行验证。风管式风车将为ABE系统提供空调和动力,以提高TE系统散热器的热效率。数值和实验工作将进行研究。某建筑安装了ABE系统,采用风力、太阳能驱动,绕过风车气流作为气流,环境温度,To等于35℃,室内温度,Ti等于28℃。数值计算结果表明,ABE在有散热片、无风扇的情况下,Ti值降低2°C。随着风机开启,强对流换热,Ti将降低约4 ~ 5°C。我们希望本研究的发现可以使健康生活舒适房间的梦想成真。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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