In situ Performance of Expanded Molded Polystyrene in the Exterior Basement Insulation Systems (EIBS)

M. Swinton, Mark Bomberg, M. Kumaran, W. Maref
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引用次数: 7

Abstract

Several different Exterior Basement Insulation Systems (EIBS) were built and instrumented as part of the basement consortium2 research project. These EIBS specimens were instrumented prior to back filling with soil, and their in situ thermal performance was monitored over two years. Soil temperatures and moisture content were monitored concurrently. Weather data were recorded on a daily basis. Through analysis of the measured surface temperature records, the presence of water was detected at the outer surface during various periods of heavy rain and major thaws throughout the two-year period. During these periods, the surface of the concrete showed no evidence of water penetration through the insulation layer over most of the height of the basement wall. Since the test setup involved different thermal insulating materials placed next to each other, the presence of lateral heat flow was inevitable. Both 2-D and 3-D models were used to quantify the lateral heat flow across the edges of different in sulating materials. The measured spatial and temporal temperature profiles were used as boundary conditions. The thermal performance of each insulation specimen was found to remain sta ble over the two-year period and was not significantly affected by episodes of wa ter movement at the exterior face of the specimens. The thermal resistance of
膨胀模压聚苯乙烯在地基外保温系统中的原位性能
作为地下室联盟研究项目的一部分,建造了几种不同的外部地下室保温系统(EIBS)并对其进行了检测。在回填土之前,对这些EIBS样品进行了仪器测量,并对其原位热性能进行了为期两年的监测。同时监测土壤温度和水分含量。每日记录天气数据。通过对测量的地表温度记录的分析,在两年的时间里,在大雨和主要融化的不同时期,外表面都检测到水的存在。在此期间,混凝土表面没有水穿过地下室墙大部分高度的保温层的迹象。由于测试装置涉及不同的隔热材料彼此相邻放置,因此存在横向热流是不可避免的。采用二维和三维模型量化了不同隔热材料边缘的横向热流。测量的时空温度分布作为边界条件。在两年的时间里,每个保温材料的热性能都保持稳定,并且没有受到样品外表面水运动的显著影响。的热阻
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