Parametric study of the energy potential of a building’s envelope with integrated energy-active elements
DOI:
https://doi.org/10.14311/AP.2022.62.0595Keywords:
Building Structures with Integrated Energy-Active Elements (BSIEAE), Active Thermal Protection (ATP), Thermal Barrier (TB), Large-Scale Radiant Heating/Cooling (LSRHC), Heat/Cool Accumulation (HCA), Absorption of Solar and Ambient Energy, Thermally Activated Building Structure (TABS)Abstract
Building structures with integrated energy-active elements (BSIEAE) present a progressive alternative for building construction with multifunctional energy functions. The aim was to determine the energy potential of a building envelope with integrated energy-active elements in the function of direct-heating, semi-accumulation and accumulation of large-area radiant heating. The research methodology consists in an analysis of building structures with energy-active elements, creation of mathematical-physical models based on the simplified definition of heat and mass transfer in radiant large-area heating, and a parametric study of the energy potential of individual variants of technical solutions. The results indicate that the increase in heat loss due to the location of the tubes in the structure closer to the exterior is negligible for Variant II, semi-accumulation heating, and Variant III, accumulation heating, as compared to Variant I, direct heating, it is below 1 % of the total delivered heat flux. The direct heat flux to the heated room is 89.17 %, 73.36 %, and 58.46 % of the total heat flux for Variant I, Variant II and Variant III, respectively. For Variant II and Variant III, the heat storage accounts for 14.84 %, and 29.86 % of the total heat flux, respectively. Variants II and III appear to be promising in terms of heat/cool accumulation with an assumption of lower energy demand (at least 10 %) than for low inertia walls. We plan to extend these simplified parametric studies with dynamic computer simulations to optimise the design and composition of the panels with integrated energy-active elements.
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Copyright (c) 2022 Daniel Kalús , Daniela Koudelková, Veronika Mučková, Martin Sokol, Mária Kurčová, Patrik Šťastný
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