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Building thermal storage technology: Compensating renewable energy fluctuations
Journal of Energy Storage ( IF 9.4 ) Pub Date : 2019-12-23 , DOI: 10.1016/j.est.2019.101147
MCarmen Guerrero Delgado , José Sánchez Ramos , Servando Álvarez Domínguez , José Antonio Tenorio Ríos , Luisa F. Cabeza

Emerging technologies and new intelligent management systems will be needed to rise to the energy challenges posed by buildings today. Thermally activated building systems (TABS) are attracting growing interest on the back of their energy savings potential. The TABS studied in this article, a new prefabricated panel designed for installation in residential building façades, was characterised by the high thermal inertia afforded by the phase change materials in its composition. The design and assessment of the potential savings derived from TABS require specific characterisation methodologies to estimate the amount of useful energy available to control the indoor environment. A two-stage approach was adopted for the TABS studied here with ``ideal'' operating control (the building is assumed to be at a constant desired temperature). The first stage involved a simplified method for characterising system behaviour based on performance maps developed from CFD simulations. Such maps can be used to quickly assess changes in system energy performance following on variations in design and operating parameters. In the second, the TABS was integrated into a building with a simplified model to assess monthly energy demand to evaluate the system potential for energy savings in representative types of Spanish single-family housing in different climate zones. The first-stage findings showed that given the system significant inertia, it discharged for several days, even when charging occurred only on the first, ensuring a wide operating range adaptable to renewable resource limitations. The analysis of potential, in turn, revealed that savings of over 40% in heating demand are possible even under the least favourable circumstances.



中文翻译:

建筑蓄热技术:补偿可再生能源的波动

将需要新兴技术和新的智能管理系统来应对当今建筑物带来的能源挑战。凭借其节能潜力,热激活建筑系统(TABS)引起了越来越多的兴趣。本文研究的TABS是一种专为安装在住宅建筑立面上而设计的新型预制板,其特征在于相变材料在其成分中具有很高的热惯性。从TABS获得的潜在节省的设计和评估需要特定的表征方法,以估算可用于控制室内环境的有用能源的数量。在这里研究的TABS采用``理想''运行控制的两阶段方法(假定建筑物处于恒定的期望温度)。第一阶段涉及一种简化的方法,该方法基于基于CFD仿真开发的性能图来表征系统行为。此类图可用于根据设计和操作参数的变化快速评估系统能源性能的变化。第二,将TABS集成到具有简化模型的建筑物中,以评估每月的能源需求,以评估系统在不同气候区域中代表西班牙单户住房类型的节能潜力。第一阶段的发现表明,即使系统仅在第一阶段进行充电,由于系统具有显着的惯性,因此即使放电几天也能放电,从而确保了宽泛的运行范围,可适应可再生资源的限制。反过来,对潜力的分析

更新日期:2019-12-23
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