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Original Articles

Study of mass transfer and hygroscopic properties of Australian mass-timber panels and species in hot and humid conditions- moisture sorption and desorption

Pages 220-234 | Received 29 Mar 2023, Accepted 08 Jul 2023, Published online: 09 Aug 2023

References

  • Afshari, Z., and Malek, S., 2022. Moisture transport in laminated wood and bamboo composites bonded with thin adhesive layers – a numerical study. Construction and Building Materials, 340, 127597.
  • Ahmed, S. A., Hansson, L., and Morén, T., 2013. Distribution of preservatives in thermally modified Scots pine and Norway spruce sapwood. Wood Science and Technology, 47 (3), 499–513.
  • AlSayegh, G., 2013. Hygrothermal properties of cross laminated timber and moisture response of wood at high relative humidity. Ottawa, Canada: Master of Applied Science Carleton University).
  • Australia, S. A. O., 2000. AS 1080.3-1981- methods of testing timber – determination of density. Standards Australia Techstreet Enterprise.
  • Australian Building Codes Board. (2019). Condensation in buildings National Construction Code . CANBERRA, Australian Building Codes Board.
  • Benthien, J. T., et al., 2020. Specific dimensional change behavior of laminated beech veneer lumber (BauBuche) in terms of moisture absorption and desorption. MDPI- Fibers, 8 (47), 1–16.
  • Bettina Franke, F. S., and Müller, Andreas, 2014. Assessment of the glue-line quality in glued laminated timber structures materials and joints in timber structures. S. A.-W. R. Garrecht, SpringLink, 9.
  • Bobadilha, G. d. S., et al., 2021. Physical, optical, and visual performance of coated cross-laminated timber during natural and artificial weathering. Coatings, 11 (2), 252.
  • Booker, R., 1990. Changes in transverse wood permeability during the drying of Dacrydium Cupressinum aud Pinus Radiata. New Zealand Journal of Forestry Science, 20 (2), 231–244.
  • Brischke, C., and Alfredsen, G., 2020. Wood-water relationships and their role for wood susceptibility to fungal decay. Applied Microbiology and Biotechnology, 104 (9), 3781–3795.
  • Cai, C., et al., 2020. Effect of natural weathering on water absorption and pore size distribution in thermally modified wood determined by nuclear magnetic resonance. Cellulose, 27 (8), 4235–4247.
  • Chang, S. J., et al., 2021. Assessment of effect of climate change on hygrothermal performance of cross-laminated timber building envelope with modular construction. Case Studies in Thermal Engineering, 28, 101703.
  • Chauhan, S. S., and Aggarwal, P., 2004. Effect of moisture sorption state on transverse dimensional changes in wood. Holz als Roh- und Werkstoff, 62 (1), 50–55.
  • Chiniforush, A.A., et al., 2019a. Moisture and temperature induced swelling/shrinkage of softwood and hardwood glulam and LVL: An experimental study. Construction and Building Materials, 207, 70–83.
  • Chiniforush, A.A., et al., 2022. Dimensional stability and moisture-induced strains in spruce cross-laminated timber (CLT) under sorption/desorption isotherms. Construction and Building Materials, 356, 129252.
  • Chiniforush, A., Gharib, M., and Akbarnezhad, A., 2021. A unified moisture sorption–desorption isotherm for engineered wood. Journal of Materials in Civil Engineering, 33 (11), 04021303.
  • Chiniforush, A., Valipour, H., and Akbarnezhad, A., 2019b. Water vapor diffusivity of engineered wood: effect of temperature and moisture content. Construction and Building Materials, 224, 1040–1055.
  • Choong, E. T., and Achmadi, S. S., 1991. Effect of extractives on moisture sorption and shrinkage in tropical woods. Wood and Fiber Science, 23 (2), 185–196.
  • Colinart, T., et al., 2017. Temperature dependence of sorption isotherm of hygroscopic building materials. Part 2: Influence on hygrothermal behavior of hemp concrete. Energy and Buildings, 152, 42–51.
  • Colinart, T., and Glouannec, P., 2017. Temperature dependence of sorption isotherm of hygroscopic building materials. Part 1: Experimental evidence and modeling. Energy and Buildings, 139, 360–370.
  • Collins, T. J., 2007. ImageJ for microscopy. Biotechniques, 43 (S1), S25–S30.
  • ECLIPSE LV100ND / LV100NDA. Available from https://www.nikon.com/products/industrial-metrology/lineup/microscope/industrial-microscopes/lv100nd_lv100nda/.
  • Falk, R. H., 2009. Wood as a sustainable building material. Forest Products Journal, 59 (9), 6–12.
  • Fedorik, F., and Haapala, A., 2017. Impact of Air-gap design to hygro-thermal properties and mould growth risk between concrete foundation and CLT frame. Energy Procedia, 132, 117–122.
  • Gaspari, A., Giongo, I., and Piazza, M., 2022. A risk-based approach for timber building decay prediction. Procedia Structural Integrity, 37, 811–819.
  • Gas Pycnometer for Semi-Solid and Solid Density: Ultrapyc. Available from https://www.anton-paar.com/au-en/products/details/ultrapyc/.
  • Gereke, T., et al., 2009. Experimental and numerical determination of the hygroscopic warping of cross-laminated solid wood panels. hfsg, 63 (3), 340–347.
  • Gereke, T., et al., 2010. The hygroscopic waring of cross laminated timber. In: V. Bucur, ed. Delamination in wood, wood products and wood-based composites. Dordrecht: Springer Netherlands, 269–285.
  • Glass, S., and Zelinka, S., 2021. “Moisture relations and physical properties of wood.” Chapter 4 in FPL-GTR-282: 4-1-4-22.
  • Goodell, B., Winandy, J. E., and Morrell, J. J., 2020. Fungal degradation of wood: emerging data, new insights and changing perceptions. MDPI- Coatings, 10 (1210), 1–19.
  • Jakub Sandak, A. S., and Riggio, Mariapaola, 2015. Characterization and monitoring of surface weathering on exposed timber structures with a multi-sensor approach. International Journal of Architectural Heritage, 9, 674–688.
  • Kordziel, S., 2018. Study of moisture conditions in a multi- story mass timber building- through the use of sensors and Wufi Hygrothermal modeling.
  • Kordziel, S., et al., 2018. Moisture monitoring and modeling of mass timber building systems. In: Proceedings, WCTE 2018-World conference on timber engineering. Seoul: Korean Institute of Forest Science. 7 p.
  • Kordziel, S., et al., 2020. Hygrothermal characterization and modeling of cross-laminated timber in the building envelope. Building and Environment, 177(2020), 1–13.
  • Kukk, V., et al., 2017. Impact of cracks to the hygrothermal properties of CLT water vapour resistance and air permeability. Energy Procedia, 132, 741–746.
  • Latif, E., et al., 2015. Hygrothermal performance of wood-hemp insulation in timber frame wall panels with and without a vapour barrier. Building and Environment, 92, 122–134.
  • Lepage, R., 2012. Moisture response of wall assemblies of cross-laminated timber construction in cold Canadian climates. Ontario, Canada: University of Waterloo.
  • Lepage, R., and Finch, G., 2017. Moisture uptake testing for CLT floor panels in a tall wood building in Vancouver. In: Proceedings of the 15th Canadian conference on building science and technology. Vancouver, BC, Canada.
  • Libralato, M., et al., 2021a. Damage risk assessment of building materials with moisture hysteresis. Journal of Physics: Conference Series, 2069(2021), 012043.
  • Libralato, M., et al., 2021b. Multiyear hygrothermal performance simulation of historic building envelopes. IOP Conference Series: Earth and Environmental Science, 863(1), 1–8.
  • Libralato, M., et al., 2021c. Effects of considering moisture hysteresis on wood decay risk simulations of building envelopes. Journal of Building Engineering, 42, 102444.
  • Liu, T., 1986. Moisture transport in wood and wood-based panels a literature survey.
  • Liu, F., et al., 2015. Sorption isotherm of southern yellow pine—high density polyethylene composites. Materials, 8 (1), 368–378.
  • Mankowski, M. E., et al., 2018. Ongoing field evaluation of Douglas-fir cross-laminated timber in a ground proximity protected test in Mississippi. In: Proceedings, one hundred fourteenth annual meeting of the American wood protection association. Birmingham, AL: American Wood Protection Association, 114, 132–137.
  • Mankowski, M., and Morrell, J. J., 2000. Incidence of wood-destroying organisms in Oregon residential structures. Forest Products Journal, 50 (1), 49.
  • McClung, V. R., 2013. Field study of hygrothermal performance of cross-laminated timber wall assemblies with built-in moisture. Theses and dissertations. Paper 1059.
  • McClung, Ruth, et al., 2014. Hygrothermal performance of cross-laminated timber wall assemblies with built-in moisture: field measurements and simulations. Building and Environment, 71 (January 2014), 95–110.
  • Morrell, J. J., and Gartner, B. L., 1997. Wood as a material. In: A. Bruce and J. Palfreyman, eds. Forest products biotechnology. CRC Press, 11–24.
  • Murr, A., 2022. Water vapour sorption and moisture transport in and across fibre direction of wood. Cellulose, 29 (29), 4135–4152.
  • Ngono Mvondo, R. R., et al., 2021. Investigation on mechanical and thermal properties related to hygroscopicity of two African hardwoods. Wood Material Science & Engineering, 17(6), 1–12.
  • Ouertani, S., et al., 2014. Moisture sorption isotherms and thermodynamic properties of Jack pine and palm wood: Comparative study. Industrial Crops and Products, 56, 200–210.
  • Ouertani, S., Simo-Tagne, M., and Rémond, R., 2023. Sorption isotherms and moisture transfer properties of seven Central Africa hardwood species. Wood Material Science & Engineering, 18 (2), 507–516.
  • Pearson, H., Gabbitas, B., and Ormarsson, S., 2013. Equilibrium moisture content of radiata pine at elevated temperature and pressure reveals measurement challenges. Journal of Materials Science, 48 (1), 332–341.
  • Peng, L. M., et al., 2015. Analysis of wood pore characteristics with mercury intrusion porosimetry and X-ray micro-computed tomography. Wood Research, 60 (6), 857–864.
  • Plötze, M., and Niemz, P., 2011. Porosity and pore size distribution of different wood types as determined by mercury intrusion porosimetry. European Journal of Wood and Wood Products, 69 (4), 649–657.
  • Popper, R., Niemz, P., and Croptier, S., 2009. Adsorption and desorption measurements on selected exotic wood species: analysis with the Hailwood-Horrobin model to describe the sorption hysteresis. Wood Research, 54(4), 43–56.
  • Riggio, M., Schmidt, E., and Mustapha, G., 2019. Moisture monitoring data of mass timber elements during prolonged construction exposure: the case of the Forest Science Complex (Peavy Hall) at Oregon State University. Frontiers in Built Environment, 5, 98.
  • Robbins, C., and Morrell, J. J., 2006. Mold, housing & wood, western wood products association. Portland, OR.
  • Rosen, H. N., 1980. Psychrometric relationships and equilibrium moisture content of wood at temperatures above 212 F. Wood and Fiber Science, 12(3), 153–171.
  • Ross, R. J., 2010. Wood handbook: wood as an engineering material. USDA Forest Service, Forest Products Laboratory, General Technical Report FPL-GTR-190, 2010: 509 p. 1 v. 190.
  • Sadłowska-Sałęga, A., and Wąs, K., 2020. Risk of moisture in diffusionally open roofs with cross-laminated timber for Northern Coastal climates. Buildings, 10 (1), 10.
  • Sarkar, K., and Bhattacharjee, B., 2017. Modeling of tropical rainfall exposure for the study of moisture penetration in porous building materials. Journal of Hydrologic Engineering, 22 (8), 04017017.
  • Schmidt, E. L., et al., 2019. Environmental response of a CLT floor panel: Lessons for moisture management and monitoring of mass timber buildings. Building and Environment, 148, 609–622.
  • Schmidt, E., and Riggio, M., 2019. Monitoring moisture performance of cross-laminated timber building elements during construction. Buildings, 9 (6), 144.
  • Setter, L., et al., 2019. Energy and hygrothermal performance of cross laminated timber single-family homes subjected to constant and variable electric rates. Journal of Building Engineering, 25, 100784.
  • Shirmohammadi, M., 2023. Study of the hygroscopic properties of three Australian wood species used as solid wood and composite products. European Journal of Wood and Wood Products European Journal of Wood and Wood Products, 26.
  • Shirmohammadi, M., and Leggate, W., 2020. Investigating the effects of moisture ingress on the performance and service life of mass timber panels in Australian climates – Experimental tetsing plan Q. G. Department of Agriculture and Fisheries.
  • Simo-Tagne, M., et al., 2016. Sorption behavior of four tropical woods using a dynamic vapor sorption standard analysis system. Maderas. Ciencia y tecnología, 18 (3), 403–412.
  • Simo-Tagne, M., et al., 2019. Determination and modeling of the isotherms of adsorption/desorption and thermodynamic properties of obeche and lotofa using Nelson’s sorption model. Heat and Mass Transfer, 55, 2185–2197.
  • Simón, C., et al., 2017. Comparison of the saturated salt and dynamic vapor sorption methods in obtaining the sorption properties of Pinus pinea L. European Journal of Wood and Wood Products, 75 (6), 919–926.
  • Skaar, C., 2012. Wood-water relations. Blacksburg, USA: Springer Science & Business Media.
  • Slováčková, B., et al., 2021. Diffusion coefficient and equilibrium moisture content of different wood species degraded with trametes versicolor. BioResources, 16 (2), 2570–2588.
  • Straube, J. F., 1999. Moisture control and enclosure wall systems. University of Waterloo.
  • Straube, J. F., and Burnett, E.F.P., 2005. Building science for building enclosure design. Westford: Building Science Press.
  • Straube, J., Onysko, D., and Schumacher, C., 2002. Methodology and design of field experiments for monitoring the hygrothermal performance of wood frame enclosures. Journal of Thermal Envelope and Building Science, 26 (2), 123–151.
  • Suleiman, B. M., et al., 1999. Thermal conductivity and diffusivity of wood. Wood Science and Technology, 33, 465–473.
  • Teussingka, T., et al., 2023. An experimental and theoretical analysis of the dynamic response of solar drying in natural convection under rainy month of Maroua (Cameroon) of three tropical wood species. Wood Material Science & Engineering, 1–21.
  • Udele, K. E., Morrell, J. J., and Sinha, A., 2021. Biological durability of cross-laminated timber— the state of things. Forest Products Journal, 71 (2), 124–132.
  • Wang, J., et al., 2018. Durability of mass timber structures: a review of the biological risks. Wood and Fiber Science, 50, 110–127.
  • Wang, L., and Ge, H., 2016. Hygrothermal performance of cross-laminated timber wall assemblies: a stochastic approach. Building and Environment, 97, 11–25.
  • Wang, J., Mukhopadhyaya, P., and Morris, P., 2011. Wood sorption, capillary condensation and their implications for building envelopes of wood construction. In: 13th Canadian conference on building science and technology. Manitoba, 1–13.
  • Wang, J., Mukhopadhyaya, P., and Morris, P. I., 2014. Sorption and capillary condensation in wood and the moisture content of red pine. Journal of Building Physics, 37 (4), 327–347.
  • Winandy, J. E., and Morrell, J. J., 2017. Improving the utility, performance, and durability of woodand bio-based composites. Annals of Forest Science, 74 (25), 1–11.
  • Zaihan, J., Hill, C. A. S., and Curling, S., 2009. Moisture adsorption isotherms of wood studied using a dynamic vapour sorption apparatus. Beijing, China: The International Research Group on Wood Protection.
  • Zauer, M., Pfriem, A., and Wagenführ, A., 2013. Toward improved understanding of the cell-wall density and porosity of wood determined by gas pycnometry. Wood Science and Technology, 47 (6), 1197–1211.
  • Zelinka, S., et al., 2018. Moisture monitoring throughout the construction and occupancy of mass timber builidings. In: Proceedings, 1st International conference on new horizons in green civil engineering (NHICE-01). Victoria, BC: University of Victoria, 32–36.

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