Fraga-De Cal Beatriz, Garrido-Marijuan Antonio, Eguiarte Olaia, Arregi Beñat, Romero-Amorrortu Ander, Mezzasalma Giulia, Ferrarini Giovanni, Bernardi Adriana
Tecnalia, Basque Research and Technology Alliance (BRTA), 48160 Derio, Spain.
Enedi Research Group, Thermal Engineering Department, University of the Basque Country (UPV/EHU), 48013 Bizkaia, Spain.
Materials (Basel). 2021 Mar 5;14(5):1226. doi: 10.3390/ma14051226.
Prefabricated solutions incorporating thermal insulation are increasingly adopted as an energy conservation measure for building renovation. The InnoWEE European project developed three technologies from Construction and Demolition Waste (CDW) materials through a manufacturing process that supports the circular economy strategy of the European Union. Two of them consisted of geopolymer panels incorporated into an External Thermal Insulation Composite System (ETICS) and a ventilated façade. This study evaluates their thermal performance by means of monitoring data from three pilot case studies in Greece, Italy, and Romania, and calibrated building simulation models enabling the reliable prediction of energy savings in different climates and use scenarios. Results showed a reduction in energy demand for all demo buildings, with annual energy savings up to 25% after placing the novel insulation solutions. However, savings are highly dependent on weather conditions since the panels affect cooling and heating loads differently. Finally, a parametric assessment is performed to assess the impact of insulation thickness through an energy performance prediction and a cash flow analysis.
包含隔热材料的预制解决方案越来越多地被用作建筑翻新的节能措施。InnoWEE欧洲项目通过一种支持欧盟循环经济战略的制造工艺,从建筑和拆除废物(CDW)材料中开发出了三种技术。其中两种技术由纳入外墙外保温复合系统(ETICS)和通风外墙的地质聚合物板组成。本研究通过对希腊、意大利和罗马尼亚的三个试点案例研究的监测数据,以及经过校准的建筑模拟模型来评估它们的热性能,这些模型能够可靠地预测不同气候和使用场景下的节能情况。结果表明,所有示范建筑的能源需求都有所减少,在采用新型保温解决方案后,每年的能源节约量高达25%。然而,节能高度依赖于天气条件,因为这些板材对制冷和制热负荷的影响不同。最后,通过能源性能预测和现金流分析进行参数评估,以评估保温厚度的影响。