Field Monitoring and Modeling of the Hygrothermal Performance of a Cross-Laminated Timber and Wood Fiber-Insulated Building Located in a Cold Climate

The increased complexity of buildings has led to rigorous performance demands from materials and building envelopes. As markets for low-carbon, renewable construction materials grow, cross-laminated timber and wood fiber insulation have emerged as promising alternatives to meet these rigorous demands. However, an investigation into the performance and interaction of materials within high-performance systems is necessary to determine the durability risks associated with increased complexity and the introduction of new materials. This is important in order to ensure that these materials can meet the required functions of the building while taking advantage of their environmental benefits. To do so, this case study investigated a building constructed of cross-laminated timber and wood fiber insulation in a cold climate (Zone 6A) (Belfast, ME, USA). During construction, the building was instrumented with temperature, relative humidity, and moisture content monitoring instrumentation through the envelope, i.e., wall and roof assemblies. The conditions within the envelope were monitored for a two-year period and used to calibrate a hygrothermal model, along with measured material properties. The calibrated model was used to conduct a 5-year simulation and mold risk assessment. Findings demonstrated that there was no moisture or mold risk throughout the monitoring period or simulation. This supports the integration of cross-laminated timber and wood fiber insulation in sustainable building practices, particularly in cold climates where moisture management is critical.

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Publication Details

Journal
Sustainability
Published
2025-09-01
DOI
https://doi.org/10.3390/su17177879
Primary Topic
Hygrothermal properties of building materials
Type
article
Field-Weighted Citation Impact
0.00

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article

Field Monitoring and Modeling of the Hygrothermal Performance of a Cross-Laminated Timber and Wood Fiber-Insulated Building Located in a Cold Climate

L. O’Brien, Wilhelm A. Friess, Jacob Snow, Ling Li et al.
1 links
Sustainability
Hygrothermal properties of building materials
article

Field Monitoring and Modeling of the Hygrothermal Performance of a Cross-Laminated Timber and Wood Fiber-Insulated Building Located in a Cold Climate

L. O’Brien, Wilhelm A. Friess, Jacob Snow, Ling Li, Benjamin Herzog
article en

Abstract

The increased complexity of buildings has led to rigorous performance demands from materials and building envelopes. As markets for low-carbon, renewable construction materials grow, cross-laminated timber and wood fiber insulation have emerged as promising alternatives to meet these rigorous demands. However, an investigation into the performance and interaction of materials within high-performance systems is necessary to determine the durability risks associated with increased complexity and the introduction of new materials. This is important in order to ensure that these materials can meet the required functions of the building while taking advantage of their environmental benefits. To do so, this case study investigated a building constructed of cross-laminated timber and wood fiber insulation in a cold climate (Zone 6A) (Belfast, ME, USA). During construction, the building was instrumented with temperature, relative humidity, and moisture content monitoring instrumentation through the envelope, i.e., wall and roof assemblies. The conditions within the envelope were monitored for a two-year period and used to calibrate a hygrothermal model, along with measured material properties. The calibrated model was used to conduct a 5-year simulation and mold risk assessment. Findings demonstrated that there was no moisture or mold risk throughout the monitoring period or simulation. This supports the integration of cross-laminated timber and wood fiber insulation in sustainable building practices, particularly in cold climates where moisture management is critical.

SustainabilityVol. 17(17)
University of Maine (US)
U.S. Department of Energy, U.S. Department of Agriculture, Office of Energy Efficiency and Renewable Energy, Agricultural Research Service, Office of Energy Efficiency
Openalex Percentile: Top 75%
Hygrothermal properties of building materials
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