TY - GEN
T1 - Physical monitoring of replacement infill panels for historic timber-framed buildings in the UK
T2 - 34th International Conference on Passive and Low Energy Architecture: Smart and Healthy Within the Two-Degree Limit, PLEA 2018
AU - Whitman, Christopher J.
AU - Prizeman, Oriel
AU - Gwilliam, Julie
AU - Shea, Andy
AU - Walker, Pete
PY - 2018/1/1
Y1 - 2018/1/1
N2 - With the aim of reducing carbon emissions and increasing hygrothermal comfort, buildings across the UK are undergoing energy retrofits. With historic buildings, it is important that retrofit actions have a limited negative impact on the building’s fabric and cultural significance. Work to date in the UK has focused on the retrofit of historic solid masonry construction, with little research into the retrofit of historic timber-framed buildings. Changes to these buildings must be managed through the use of established conservation principles. However, where infill panels are beyond repair or have previously been substituted with inappropriate materials, there exists the potential to retrofit a material with a higher thermal performance. Nonetheless, it must be ensured that this retrofit does not create interstitial hygrothermal conditions that could threaten the survival of surrounding historic fabric. In this paper the authors present the hygrothermal simulation and physical monitoring of three different potential replacement infill panels. Results from Glaser calculations, WUFI® Pro and WUFI® 2D are compared to measured results of physical test panels mounted between two climate-controlled chambers. Whilst all three prediction methods successfully identified interstitial condensation where it was measured to occur, major discrepancies existed both between simulated and measured results, and between different simulation methods.
AB - With the aim of reducing carbon emissions and increasing hygrothermal comfort, buildings across the UK are undergoing energy retrofits. With historic buildings, it is important that retrofit actions have a limited negative impact on the building’s fabric and cultural significance. Work to date in the UK has focused on the retrofit of historic solid masonry construction, with little research into the retrofit of historic timber-framed buildings. Changes to these buildings must be managed through the use of established conservation principles. However, where infill panels are beyond repair or have previously been substituted with inappropriate materials, there exists the potential to retrofit a material with a higher thermal performance. Nonetheless, it must be ensured that this retrofit does not create interstitial hygrothermal conditions that could threaten the survival of surrounding historic fabric. In this paper the authors present the hygrothermal simulation and physical monitoring of three different potential replacement infill panels. Results from Glaser calculations, WUFI® Pro and WUFI® 2D are compared to measured results of physical test panels mounted between two climate-controlled chambers. Whilst all three prediction methods successfully identified interstitial condensation where it was measured to occur, major discrepancies existed both between simulated and measured results, and between different simulation methods.
KW - Hygrothermal monitoring
KW - Hygrothermal simulation
KW - Interstitial condensation
KW - Retrofit
KW - Timber-Framed
UR - http://www.scopus.com/inward/record.url?scp=85086572065&partnerID=8YFLogxK
M3 - Chapter in a published conference proceeding
AN - SCOPUS:85086572065
T3 - PLEA 2018 - Smart and Healthy within the Two-Degree Limit: Proceedings of the 34th International Conference on Passive and Low Energy Architecture
SP - 129
EP - 132
BT - PLEA 2018 - Smart and Healthy within the Two-Degree Limit
A2 - Ng, Edward
A2 - Fong, Square
A2 - Ren, Chao
PB - School of Architecture, The Chinese University of Hong Kong
Y2 - 10 December 2018 through 12 December 2018
ER -