Moisture-related distortion and damage of lightweight wood panels—experimental and numerical study
Tóm tắt
Từ khóa
Tài liệu tham khảo
Allen HG (1969) Analysis and design of structural sandwich panels. Pergamon press, Oxford
Barboutis I, Vassiliou V (2005) Strength properties of lightweight paper honeycomb panels for furniture. In: Proceedings of international scientific conference 10th anniversary of engineering design (interior and furniture design), pp 17–18
Barbu MC (2015) Evolution of lightweight wood composites. Pro Ligno 11(4):21–26
Barbu M, Lüdtke J, Thömen H, Welling J (2010) New technology for the continuous production of wood-based lightweight panels. In: Proceedings of the international convention of society of wood science and technology. United Nations Economic Commission for Europe–Timber Committee, Geneva, Switzerland, 11–14 October
Bitzer T (1997) Honeycomb technology—materials, design, manufacturing, applications and testing. Chapman & Hall, London
Boutelje JB, Rydell R (1995) Träfakta: 44 träslag i ord och bild (Wood Facts: 44 wood species in word and figures). TräteknikCentrum, Stockholm, Sweden (In Swedish)
Carll C, Wiedenhoeft AC (2009) Moisture-related properties of wood and the effects of moisture on wood and wood products. In: Blomberg MT, Trechsel HR (eds) Moisture control in buildings: the key factor in mould prevention, 2nd edn. ASTM International, West Conshohocken, pp 54–79
Feifel S, Poganietz WR, Schebek L (2013) The utilization of light weight boards for reducing air emissions by the German wood industry–a perspective? Environ Sci Eur 25(1):5
Gereke T (2009) Moisture-induced stresses in cross-laminated wood panels. Dissertation, University of Leipzig
Grönlund A (2004) Träbearbetning (wood manufacturing). Trätek, Stockholm, Sweden (In Swedish)
Jakieła S, Bratasz Ł, Kozłowski R (2008) Numerical modelling of moisture movement and related stress field in lime wood subjected to changing climate conditions. Wood Sci Technol 42(1):21–37
Karlsson KF, Åström TB (1997) Manufacturing and applications of structural sandwich components. Compos Part A Appl Sci Manuf 28(2):97–111
Kawasaki T, Zhang M, Kawai S (1999) Sandwich panel of veneer-overlaid low-density fiberboard. J Wood Sci 45(4):291–298
Kawasaki T, Hwang K, Komatsu K, Kawai S (2003) In-plane shear properties of the wood-based sandwich panel as a small shear wall evaluated by the shear test method using tie-rods. J Wood Sci 49(3):199–209
Keenan RJ, Reams GA, Achard F, de Freitas JV, Grainger A, Lindquist E (2015) Dynamics of global forest area: results from the FAO Global Forest Resources Assessment 2015. For Ecol Manage 352:9–20
Kollmann FP (1951) Technologie des Holzes und der Holzwerkstoffe, vol 2. Springer, Berlin
Larsen F, Ormarsson S (2014) Experimental and finite element study of the effect of temperature and moisture on the tangential tensile strength and fracture behavior in timber logs. Holzfors 68(1):133–140
Librescu L, Hause T (2000) Recent developments in the modeling and behavior of advanced sandwich constructions: a survey. Compos Struct 48(1):1–17
Niemz P, Ozyhar T, Hering S, Sonderegger W (2015) Moisture dependent physical-mechanical properties from beech wood in the main directions. Pro Ligno 11(4):37–42
Nilsson J, Johansson J, Sandberg D (2013) A new light-weight panel for interior joinery and furniture. In 9th Meeting of the Northern European Network for wood science and engineering-WSE, Hannover, pp 184–189, 11–12 September 2013
Nordvik E, Broman NO (2005) Visualizing wood interiors: A qualitative assessment of what people react to and how they describe it. For Prod J 55(2):81–86
Ormarsson S (1999) Numerical analysis of moisture-related distortions in sawn timber. Dissertation, Chalmers University of Technology, Sweden
Pakarinen T (1999) Success factors of wood as a furniture material. For Prod J 49(9):79
Petras A (1999) Design of sandwich structures. Dissertation, University of Cambridge
Pflug J, Vangrimde B, Verpoest I, Vandepitte D, Britzke M, Wagenführ A (2004) Continuously produced paper honeycomb sandwich panels for furniture applications. In 5th Global Wood and Natural Fibre Composites Symposium. Kassel, Germany pp 27-28
Pydah A, Bhaskar K (2016) An accurate discrete model for strut-core sandwich plates. J Sandw Struct Mater 18(4):474–500
Shalbafan A, Luedtke J, Welling J, Thoemen H (2012) Comparison of foam core materials in innovative lightweight wood-based panels. Eur J Wood Wood Prod 70(1–3):287–292
Stosch M (2008) Think light—innovative lightweight panels. Research Report, FP Innovations Forintek Division
Streyffert T (1957) Världens framtida virkesförsörjning, vol 27. Stockholm, Bulletin of the royal school of forestry
Suchsland O (2004) The swelling and shrinking of wood: A practical technology primer. Forest Products Society, Department of Forestry Michigan State University, Peachtree Corners, Madison, USA
Wicks N, Hutchinson JW (2004) Performance of sandwich plates with truss cores. Mech Mater 36(8):739–751
Wood LW (1958) Sandwich panels for building construction. US Department of Agriculture, Forest Service, Forest Products Laboratory, Madison