基于热四端网络法的建筑材料热物性定量检测方法研究
摘要：基于热四端网络法的瞬态响应模型，建立了建筑围护结构表面脉冲信号和阶跃信号瞬态响应与围护结构内部材料蓄热系数之间的数学表征关系，提出了通过施加上述2种信号分析围护结构表面瞬态响应数据来获取材料蓄热系数的无损检测方法。针对随机信号引起的瞬态响应数据，基于杜哈梅尔定理，采用反卷积法和截断奇异值分解法，提出了重建脉冲信号响应和阶跃信号响应的数值方法，突破了实际现场检测时对围护结构输入信号的限制。采用上述方法对2种建筑材料进行了检测实验，结果表明，利用该方法可以准确快速地对建筑材料的蓄热系数进行定量检测。
关键词：建筑材料围护结构热物性蓄热系数定量检测热四端网络法建筑节能
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参考文献 [1] Global engagement-IEA[EB/OL].[2020-08-02].https://www.iea.org/areas-of-work/global-engagement/china.
[2] 赵东来，胡春雨，柏德胜，等.我国建筑节能技术现状与发展趋势[J].建筑节能，2015,43(3):116- 121.
[3] 龙惟定，梁浩.我国城市建筑碳达峰与碳中和路径探讨[J].暖通空调，2021,51(4):1- 17.
[4] 杜璘.建筑围护结构外墙传热系数现场检测方法研究[D].南昌：南昌大学，2017:2- 3.
[5] HUERTAS J D B,RUBIO-BELLIDO C,PÉREZ-ORDÓÑEZ J L.Automation and optimization of in-situ assessment of wall thermal transmittance using a random forest algorithm[J].Building and environment,2019,168:106479.
[6] 盖玉刚.建筑外墙热工性能现场检测方法与结果分析[D].济南：山东建筑大学，2013:2- 3.
[7] 王芳.建筑墙体热阻现场检测方法研究[D].成都：西南交通大学，2013:4- 6.
[8] 王晶晶.环境条件引起的热流计法测试误差研究[D].上海：同济大学，2007:5- 6.
[9] KIVIOJA H,VINHA J.Hot-box measurements to investigate the internal convection of highly insulated loose-fill insulation roof structures[J].Energy and buildings,2020,216:109934.
[10] 高慧挥.建筑围护结构热阻现场测试系统研发及影响因素分析[D].上海：东华大学，2016:8- 11.
[11] ROQUE E,VICENTE R,ALMEIDA R M S F,et al.Thermal characterisation of traditional wall solution of built heritage using the simple hot box-heat flow meter method:in situ measurements and numerical simulation[J].Applied thermal engineering,2020,169:114935.
[12] DERBAL R,DEFER D,CHAUCHOIS A,et al.A simple method for building materials thermophysical properties estimation[J].Construction & building materials,2014,63:197- 205.
[13] DECONINCK A H,ROELS S.Comparison of characterisation methods determining the thermal resistance of building components from onsite measurements[J].Energy and buildings,2016,130:309- 320.
[14] LU X,MEMARI A M.Comparative study of hot box test method using laboratory evaluation of thermal properties of a given building envelope system type[J].Energy and buildings,2018,178:130- 139.
[15] MAILLET D,ANDRÉ S,BATSALE J C.Thermal quadrupoles:solving the heat equation through integral transforms[M].Bordeaux:John Wiley and Sons,2000:295- 330.
[16] DEFER D,SHEN J,LASSUE S,et al.Non-destructive testing of a building wall by studying natural thermal signals[J].Energy and buildings,2002,34(1):63- 69.
[17] SASSINE E.A practical method for in-situ thermal characterization of walls[J].Case studies in thermal engineering,2016,8:84- 93.
[18] YANG Y,WU T V,SEMPEY A,et al.Combination of terahertz radiation method and thermal probe method for non-destructive thermal diagnosis of thick building walls[J].Energy and buildings,2018,158:1328- 1336.
[19] YANG Y,WU T V,SEMPEY A.Short time non-destructive evaluation of thermal performances of building walls by studying transient heat transfer[J].Energy and buildings,2019,184:141- 151.
[20] HANSEN P C.The truncated SVD as a method for regularization[J].BIT numerical mathematics,1987,27(4):534- 553.
[21] OZISIK M N.Heat conduction[M].New York:John Wiley and Sons,1993:259- 272.
[22] CARDEN R,HANSEN D J.Ritz values of normal matrices and Ceva's theorem[J].Linear algebra and its applications,2013,438(11):4114- 4129.
[23] 中国建筑科学研究院.民用建筑热工设计规范：GB 50176—2016[S].北京：中国建筑工业出版社，2016:77- 84.
[2] 赵东来，胡春雨，柏德胜，等.我国建筑节能技术现状与发展趋势[J].建筑节能，2015,43(3):116- 121.
[3] 龙惟定，梁浩.我国城市建筑碳达峰与碳中和路径探讨[J].暖通空调，2021,51(4):1- 17.
[4] 杜璘.建筑围护结构外墙传热系数现场检测方法研究[D].南昌：南昌大学，2017:2- 3.
[5] HUERTAS J D B,RUBIO-BELLIDO C,PÉREZ-ORDÓÑEZ J L.Automation and optimization of in-situ assessment of wall thermal transmittance using a random forest algorithm[J].Building and environment,2019,168:106479.
[6] 盖玉刚.建筑外墙热工性能现场检测方法与结果分析[D].济南：山东建筑大学，2013:2- 3.
[7] 王芳.建筑墙体热阻现场检测方法研究[D].成都：西南交通大学，2013:4- 6.
[8] 王晶晶.环境条件引起的热流计法测试误差研究[D].上海：同济大学，2007:5- 6.
[9] KIVIOJA H,VINHA J.Hot-box measurements to investigate the internal convection of highly insulated loose-fill insulation roof structures[J].Energy and buildings,2020,216:109934.
[10] 高慧挥.建筑围护结构热阻现场测试系统研发及影响因素分析[D].上海：东华大学，2016:8- 11.
[11] ROQUE E,VICENTE R,ALMEIDA R M S F,et al.Thermal characterisation of traditional wall solution of built heritage using the simple hot box-heat flow meter method:in situ measurements and numerical simulation[J].Applied thermal engineering,2020,169:114935.
[12] DERBAL R,DEFER D,CHAUCHOIS A,et al.A simple method for building materials thermophysical properties estimation[J].Construction & building materials,2014,63:197- 205.
[13] DECONINCK A H,ROELS S.Comparison of characterisation methods determining the thermal resistance of building components from onsite measurements[J].Energy and buildings,2016,130:309- 320.
[14] LU X,MEMARI A M.Comparative study of hot box test method using laboratory evaluation of thermal properties of a given building envelope system type[J].Energy and buildings,2018,178:130- 139.
[15] MAILLET D,ANDRÉ S,BATSALE J C.Thermal quadrupoles:solving the heat equation through integral transforms[M].Bordeaux:John Wiley and Sons,2000:295- 330.
[16] DEFER D,SHEN J,LASSUE S,et al.Non-destructive testing of a building wall by studying natural thermal signals[J].Energy and buildings,2002,34(1):63- 69.
[17] SASSINE E.A practical method for in-situ thermal characterization of walls[J].Case studies in thermal engineering,2016,8:84- 93.
[18] YANG Y,WU T V,SEMPEY A,et al.Combination of terahertz radiation method and thermal probe method for non-destructive thermal diagnosis of thick building walls[J].Energy and buildings,2018,158:1328- 1336.
[19] YANG Y,WU T V,SEMPEY A.Short time non-destructive evaluation of thermal performances of building walls by studying transient heat transfer[J].Energy and buildings,2019,184:141- 151.
[20] HANSEN P C.The truncated SVD as a method for regularization[J].BIT numerical mathematics,1987,27(4):534- 553.
[21] OZISIK M N.Heat conduction[M].New York:John Wiley and Sons,1993:259- 272.
[22] CARDEN R,HANSEN D J.Ritz values of normal matrices and Ceva's theorem[J].Linear algebra and its applications,2013,438(11):4114- 4129.
[23] 中国建筑科学研究院.民用建筑热工设计规范：GB 50176—2016[S].北京：中国建筑工业出版社，2016:77- 84.
Quantitative diagnosis method of thermophysical properties for building materials based on thermal quadrupoles model
Abstract: The relationship between the surface transient response of pulse and step signals of the building envelope and the heat storage coefficient of the envelope materials is established based on the thermal quadrupoles model. A non-destructive diagnosis method is proposed to obtain the heat storage coefficient of the envelope materials by applying the above two kinds of signals to analyse the surface transient response data. Based on the Duhamel theorem, a numerical model of reconstructing pulse and step signal responses using the transient response data from random signals is proposed by deconvolution and TSVD(truncated singular value decomposition) methods, which breaks the limitation of input signals during the actual diagnosis. The experiments on two typical building materials are carried out to verify the method. The results show that the heat storage coefficient of building materials can be diagnosed accurately and quickly by using this method.
Keywords: building material; building envelope; thermophysical property; heat storage coefficient; quantitative diagnosis; thermal quadrupoles model; building energy conservation;
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