AlevUUusATederM, et al. (2014) Air leakage and hygrothermal performance of an internal insulated log house. In: The 10th Nordic symposium on building physics, Lund, 15–19 June.
2.
ArenaLBOwensDManthaP (2013) Measured performance of an R-40 double-stud wall in climate zone 5a. In: Proceedings of the thermal performance of the exterior envelopes of whole buildings XII international conference, Clearwater Beach, FL, 1–5 December.
3.
BelleudyCKayelloAWoloszynM, et al. (2015) Experimental and numerical investigations of the effects of air leakage on temperature and moisture fields in porous insulation. Building and Environment94(2): 457–466.
4.
CravenCGarber-SlaghtR (2014) Exterior insulation envelope retrofits in cold climates: implications for moisture control. HVAC&R Research20: 384–394.
5.
DeromeD (2005) Moisture accumulation in cellulose insulation caused by air leakage in flat wood frame roofs. Journal of Building Physics28(3): 269–287.
6.
DesmaraisG (2000) Impact of added insulation on the hygrothermal performance of leaky exterior wall assemblies. Master’s Thesis, Concordia University, Montreal, QC, Canada.
7.
ElmahdyAHMarefWSaberHH, et al. (2010) Assessment of the energy rating of insulated wall assemblies—a step towards building energy labeling. In: 10th international conference for enhanced building operation, Kuwait, 26–28 October, pp. 1–12. London: Institution of Mechanical Engineers.
8.
ElmahdyAHMarefWSwintonMC, et al. (2009) Development of energy ratings for insulated wall assemblies. In: 2009 building envelope symposium, San Diego, CA, 26 October, pp. 21–30. London: Institution of Mechanical Engineers.
9.
FoxM (2014) Hygrothermal performance of highly insulated wood frame walls with air leakage: field measurement and simulations. Master’s Thesis, Ryerson University, Toronto, ON, Canada.
10.
GeHStraubeJWangL, et al. (2019) Field study of hygrothermal performance of highly insulated wood-frame walls under simulated air leakage. Building and Environment160: 106202.
11.
GlassSKochkinVDrumhellerCS, et al. (2015) Moisture performance of energy-efficient and conventional wood-frame wall assemblies in a mixed-humid climate. Buildings5: 759–782.
12.
JanssensAHensH (2003). Interstitial condensation due to air leakage: a sensitivity analysis. Journal of Building Physics27(1): 15–29.
13.
KaragiozisANSalonvaaraMK (1999) Hygrothermal performance of EIFS-clad walls: effect of vapor diffusion and air leakage on the drying of construction moisture. In: BoydJMSchefflerMJ (eds) ASTM STP1352. Water Problems in Building Exterior Walls: Evaluation, Prevention and Repair. West Conshohocken, PA: ASTM International, pp. 32–59.
14.
LacasseMASaberHHMarefW, et al. (2016) Field evaluation of thermal and moisture response of highly insulated wood-frame walls. In: The 13th international conference on thermal performance of the exterior envelopes of whole, buildings XIII, Clearwater, FL, 5–8 December.
15.
LangmansJKleinRRoelsS (2012) Hygrothermal risks of using exterior air barrier systems for highly insulated light weight walls: a laboratory investigation. Building and Environment56: 192–202.
16.
MarefWArmstrongMMRousseauMZ, et al. (2010.) A field monitoring investigation of the effect of adding different exterior thermal insulation materials on the hygrothermal response of wood-frame walls in a cold climate. In: Proceedings of the building enclosure science & technology (BEST2) conference, Portland, OR, 12–14 April.
17.
MarefWSaberHHGlazerR, et al. (2011) Energy performance of highly insulated wood-frame wall systems using a VIP. In: 10th international vacuum insulation symposium, Ottawa, ON, Canada, 15 September, Empa Akademie. pp. 68–76.
18.
OjanenTKumaranMK (1992) Air exfiltration and moisture accumulation in residential wall cavities. In: Thermal performance of exterior envelopes of buildings V, Clearwater, FL, 7–10 December.
19.
OjanenTKumaranK (1996) Effect of exfiltration on the hygrothermal behaviour of residential wall assembly. Journal of Thermal Insulation and Building Envelopes19: 215–227.
ParsonsGLieburnB (2013) Comparative energy and wall performance of twelve residential houses constructed in a cold climate. In: Proceedings of the thermal performance of the exterior envelopes of whole buildings XII international conference, Clearwater Beach, FL, 1–5 December.
22.
SaberHHMarefW (2015) Risk of condensation and mould growth in wood-frame wall systems with different exterior insulations. In: Building enclosure science & technology conference (BEST4 conference), 12–15 April, Kansas City, MI.
23.
SaberHHLacasseMAMooreTV (2017) Hygrothermal performance assessment of stucco-clad wood frame walls having vented and ventilated drainage cavities. In: Advances in Hygrothermal Performance of Building Envelopes: Materials, Systems and Simulations, ASTM STP1599. ASTM International, pp. 198–231. Available at: https://www.astm.org/DIGITAL_LIBRARY/STP/PAGES/STP159920160100.htm
24.
SaberHHLacasseMAGanapathyG, et al. (2016) Risk of condensation and mould growth in highly insulated wood-frame walls. In: The 13th international conference on thermal performance of the exterior envelopes of whole, buildings XIII, Clearwater, FL, 5–8 December.
25.
SaberHHMarefWAbdulghaniK (2014) Properties and position of materials in the building envelope for housing and small buildings. Report No. A1-004615.1, 31December. Ottawa, ON, Canada: NRC-Construction, National Research Council of Canada.
SaberHHMarefWElmahdyAH, et al. (2010) 3D thermal model for predicting the thermal resistance of spray polyurethane foam wall assemblies. In: 11th international conference on thermal performance of the exterior envelopes of whole buildings XI, Clearwater, FL, 5 December, Oak Ridge National Laboratory. pp. 1–19.
28.
SaberHHMarefWElmahdyAH, et al. (2012) 3D heat and air transport model for predicting the thermal resistance of insulated wall assemblies. Journal of Building Performance Simulation5(2): 75–91.
29.
SmegalJLstiburekJStraubeJ, et al. (2013) Moisture-related durability of walls with exterior insulation in the pacific northwest. In: Proceedings of the thermal performance of the exterior envelopes of whole buildings XII international conference, Clearwater Beach, FL, 1–5 December.
30.
TenWoldeARoseWB (1996) Moisture control strategies for the building envelope. Journal of Building Physics19(3): 206–214.
31.
UenoK (2015) Monitoring of double-stud wall moisture conditions in the northeast. Building America Report 1501. Westford, MA: Building Science Corporation.
32.
VokeyDNelsonCFriesenC (2006) A simple and useful method to detect and pinpoint envelope failures during field testing of a gypsum sheathed wall. In: Proceedings of the third international building physics conference, 27–31 August 2006. Montreal, QC, Canada. Taylor & Francis. pp. 419–424.