Chemical resistance of acetylated radiata pine sliced veneers

References

• Accoya product certificate [online], available at: https://www.accoya.com/app/uploads/2020/05/Accsys-Technologies-ENG-33058-21-KOMO-product-certificate.pdf [Accessed 28 January 2022].
   Google Scholar
• CARpenTiER [online]. Accessed 23 May 2022, available at: https://projekte.ffg.at/projekt/3915331.
   Google Scholar
• Explore wood [online]. Accessed 1 June 2022, available at: https://www.metsagroup.com/metsawood/explore-wood/?ba=937&ct=955.
   Google Scholar
• For(s)tschritt [online]. Accessed 23 May 2022, available at: https://www.tff-kassel.de/forschung/projekte/forstschritt/.
   Google Scholar
• HAMMER [online]. Accessed 23 May 2022, available at: http://www.projekt-hammer.de/.
   Google Scholar
• WoodC.A.R [online]. Accessed 23 May 2022, available at: https://www.woodcar.eu/index_de.html.
   Google Scholar
• Wood Handbook. Wood as an Engineering Material (2021) USDA Forest Service, Forest Products Laboratory.
   Google Scholar
• Ahmed, S. A., Chun, S. K., Miller, R. B., Chong, S. H., and Kim, A. J. (2011) Liquid penetration in different cells of two hardwood species. Journal of Wood Science, 57(3), 179–188.
   Web of Science ®Google Scholar
• Andresen, C., Demuth, C., Lange, A., Stoick, P., andPruszko, R. (2012) Biobased automobile parts investigation.
   Google Scholar
• Ashby, M. F. (1999) Materials Selection in Mechanical Design (2nd ed.). (Oxford: Butterworth-Heinemann).
   Google Scholar
• Austrian Standards Institute (1994) ÖNORM ÖNORM EN 20187:1994: 01.03.1994: Österreichisches Normungsinstitut.
   Google Scholar
• Austrian Standards Institute (2005) ÖNORM ÖNORM EN 789:2005-04-01: 01.04.2005: Austrian Standards plus GmbH.
   Google Scholar
• Austrian Standards International. ÖNORM ÖNORM EN ISO 2812-1:2018 03 15.
   Google Scholar
• Austrian Standards International. ÖNORM ÖNORM EN ISO 2812-2:2019 04 15.
   Google Scholar
• Baumann, G., Brandner, R., Müller, U., Kumpenza, C., Stadlmann, A., and Feist, F. (2020) Temperature-related properties of solid birch wood under quasi-static and dynamic bending. Materials, 13(23), 5518.
   PubMed Web of Science ®Google Scholar
• Baumann, G., Brandner, R., Müller, U., Kumpenza, C., Stadlmann, A., and Feist, F. (2021) A comparative study on the temperature effect of solid birch wood and solid beech wood under impact loading. Materials, 14(24), 15.
   Web of Science ®Google Scholar
• Baumann, G., Stadlmann, A., Kurzböck, C. and Feist, F. (2019) Crash-proof wood composites in lightweight bodyworks of the future. ATZ Worldwide, 121(11), 48–51.
   Google Scholar
• Beck, G., Thybring, E. E. and Thygesen, L. G. (2018) Brown-rot fungal degradation and de-acetylation of acetylated wood. International Biodeterioration & Biodegradation, 135, 62–70.
   Web of Science ®Google Scholar
• Buchelt, B. and Pfriem, A. (2011) Influence of wood specimen thickness on its mechanical properties by tensile testing: solid wood versus veneer. Holzforschung, 65(2), 1–3.
   Web of Science ®Google Scholar
• Buchelt, B. and Wagenführ, A. (2008) The mechanical behaviour of veneer subjected to bending and tensile loads. Holz als Roh- und Werkstoff, 66(4), 289–294.
   Google Scholar
• Chen, X., Chen, G., Huang, L., and Shi, M.F. (2018) Calibration of GISSMO Model for fracture prediction of a super high formable advanced high strength steel.
   Google Scholar
• Chum, H. L. (1989) Assessment of biobased materials.
   Google Scholar
• Cremonini, C., Negro, F. and Zanuttini, R. (2015) Wood-based panels for land transport uses. Drewno, 58, 127–135.
   Web of Science ®Google Scholar
• Desch, H. E. and Dinwoodie, J. M. (1996) Timber Structure, Properties, Conversion and Use (London: Macmillan Education UK).
   Google Scholar
• Digaitis, R., Thybring, E. E., Thygesen, L. G. and Fredriksson, M. (2021) Targeted acetylation of wood: a tool for tuning wood-water interactions. Cellulose, 28(12), 8009–8025.
   Web of Science ®Google Scholar
• Engelung Thybring, E. (2013) The decay resistance of modified wood influenced by moisture exclusion and swelling reduction. International Biodeterioration & Biodegradation, 82, 87–95, available at: https://www.sciencedirect.com/science/article/pii/S0964830513000589#!
   Web of Science ®Google Scholar
• European Commission (ed.) (2018) Annex to the communication from the comission to the European parliament, the council, the European economic and social committee and the committee of the regions. Europe on the move Sustainable Mobility for Europe: safe, connected and clean. Brussels.
   Google Scholar
• Fodor, F., Lankveld, C. and Németh, R. (2017) Testing common hornbeam (Carpinus betulus L.) acetylated with the Accoya method under industrial conditions. iForest - Biogeosciences and Forestry, 10(6), 948–954.
   Google Scholar
• Fuchs, W. (1928) Zur Kenntnis des genuinen Lignins, I.: Die Acetylierung des Fichtenholzes, available at: https://doi.org/10.1002/cber.19280610512.
   Google Scholar
• Galos, J., Sutcliffe, M. and Newaz, G. (2017) Mechanical behaviour of phenolic coated Finnish birch plywood with simulated service damage. Wood Material Science and Engineering, 12(5), 307–315.
   Web of Science ®Google Scholar
• Graf, J., Klopfer, R. and Röver, D. (2019) Neue Potentiale im konstruktiven Holzbau durch acetylierte Buche.
   Google Scholar
• Grinins, J., Biziks, V., Marais, B. N., Rizikovs, J., and Militz, H. (2021) Weathering stability and durability of birch plywood modified with different molecular weight phenol-formaldehyde oligomers. Polymers, 13(2), 2–3. https://www.mdpi.com/2073-4360/13/2/175.
   Web of Science ®Google Scholar
• Große, T., Fischer, F., Kohl, D., Müller, U., Feist, F., and Kurzböck, C. (2022) Modellierung von Holz in crash-relevanten Fahrzeugstrukturen am Beispiel eines crashrohrs [Modelling of wood in crash-relevant vehicle structures using the example of a crash tube]. In A. Wagenführ (ed.) Tagungsband des 20. Holztechnologischen Kolloquiums Dresden 28.-29. April 2022 (Dresden: Technische Uni Dresden).1–19.
   Google Scholar
• Gryparis, E., Papadopoulos, P., Leligou, H. C. and Psomopoulos, C. S. (2020) Electricity demand and carbon emission in power generation under high penetration of electric vehicles. A European Union perspective. Energy Reports, 6, 475–486.
   Web of Science ®Google Scholar
• Handbook, Wood. Wood as an Engineering Material. (2021) USDA Forest Service, Forest Products Laboratory.
   Google Scholar
• Hill, C. A. S. (2006) Wood Modification. Chemical, Thermal and Other Processes (Chichester: Wiley).
   Google Scholar
• Holbery, J. and Houston, D. (2006) Natural-Fiber-Reinforced Polymer Composites in Automotive Applications.
   Google Scholar
• Hom, S. K., Ganguly, S., Bhoru, Y.U., and Samani, A. (2020) Effect of chemical modification on dimensional stability of Pinus radiata D. Don using acetic anhydride. Journal of Forest Science, 66(5), 208–217.
   Web of Science ®Google Scholar
• Horn, O. (1928) Zur Acetylierung des Buchenholzes, available at: https://doi.org/10.1002/cber.19280611122.
   Google Scholar
• Ibach, R. E. and Rowell, R. M. (2021) USDA forest service forest products laboratory: acetylation of wood 1945–1966. Forests, 12(3), 260.
   Web of Science ®Google Scholar
• Jia, L., Chu, J., Li, J., Ren, J., Huang, P. and Li, D. (2020) Formaldehyde and VOC emissions from plywood panels bonded with bio-oil phenolic resins. Environmental Pollution, 264, 114819.
   PubMed Web of Science ®Google Scholar
• Jones, D. and Sandberg, D. (2020) A review of wood modification globally – updated findings from COST FP1407. Interdisciplinary Perspectives on the Built Environment, 1, 2.
   Google Scholar
• Jost, T., Müller, U. and Feist, F. (2014) Holzverbundwerkstoffe im Automobilbau der Zukunft? – Grundvoraussetzung: Crashsimulation von Holzkomponenten. Fachaufsatz Werkstoffprüfung.
   Google Scholar
• Jost, T., Müller, U. and Feist, F. (2018) Wood composites for future automotive engineering? – Basic requirement: wood composites for future automotive engineering? – Basi requirement; crash simulation of wood-based components. Konstruktion, 70, 74–82.
   Google Scholar
• Kass, A., Wangaard, F. and Schroeder, H. A. (1970) Chemical degradation of wood: the relationship between strength retention and pentosan content.
   Google Scholar
• Kim, J. Y. and Park, J. S. (1991) An Anatomical Research on Liquid-Penetration and Penetration-Path of Wood, available at: https://koreascience.kr/article/JAKO199100238220148.pdf.
   Google Scholar
• Kollmann, F. (1951) Anatomie und Pathologie, Chemie, Physik Elastizität und Festigkeit (Berlin: Springer Berlin Heidelberg).
   Google Scholar
• Kollmann, F. (1982) Technologie des Holzes und der Holzwerkstoffe, 201–400.
   Google Scholar
• Kretschmann, D. E. (2007) Kirk-Othmer Encyclopedia of Chemical Technology.
   Google Scholar
• Küch, W. (1939) Untersuchungen an Holz, Sperrholz und Schichthölzern im Hinblick auf ihre Verwendung im Flugzeugbau. Holz als Roh- und Werkstoff, 2. Jahrgang (7/8), 258–259.
   Google Scholar
• Lahtela, V. and Karki, T. (2015) Determination and comparison of some selected properties of modified wood. Wood Research, 60, 763–772.
   Web of Science ®Google Scholar
• Lai, G. and Plönning, S. (2019) Fracture characteristics of acetylated birch – experimental and numerical studies.
   Google Scholar
• Lankveld, C., Alexander, J., Tangen, A., Olson, T. and Bongers, F. (2014) Accoya® wood flooring and decking in extreme environments. European Conference on Wood Modification.
   Google Scholar
• Leitgeb, W., Jost, T., Mayrhofer, P., Wagner, W., Kirschbichler, S., and Müller, U. (2016) Holz im strukturellen Fahrzeugbau. 2. internationales Fahrzeugkolloquium, 35–46.
   Google Scholar
• Levy, J. F. and Eveleigh, D. E. (1990) The Natural History of the Degradation of Wood [and Discussion].
   Google Scholar
• Mantanis, G. (2017) Chemical modification of wood by acetylation or furfurylation: A review of the present scaled-up technologies. Bioresources, 12, 4478–4489.
   Web of Science ®Google Scholar
• Militz, H. and Krause, A. (2004) Holzmodifizierung für den Fenster- und Fassadenbau: Mehr als nur Holz. glaswelt Spezial (6), 40–42.
   Google Scholar
• Moghaddam, M. S., Claesson, P. M., Wålinder, M. E. P. and Swerin, A. (2014) Wettability and liquid sorption of wood investigated by Wilhelmy plate method. Wood Science and Technology, 48(1), 161–176.
   Web of Science ®Google Scholar
• MoveWood. [online]. Accessed 23 May 2022, available at: https://www.innovationszentrum-weiz.at/veranstaltungen-aktuelles/detail/projekt-movewood.
   Google Scholar
• O'Halloran, M. R. (1975) Plywood in hostile environments: Physical properties and applications. APA Research report (132).
   Google Scholar
• Persaud, N., Lehr, J., and Keeley, E. (2005) Vapor pressure. Water encyclopedia (2005). Water Encyclopedia.
   Google Scholar
• Pramreiter, M., Bodner, S. C., Keckes, J., Stadlmann, A., Feist, F., Baumann, G., Maawad, E. and Müller, U. (2021) Predicting strength of Finnish birch veneers based on three different failure criteria. Holzforschung, 75(9), 847–856.
   Web of Science ®Google Scholar
• Rowell, R. M. (1992) Opportunities for value-added bio-based composites.
   Google Scholar
• Roy, W. R. (2016) The environmental fate of representative antistatic agents and components. In Handbook of Antistatics (Elsevier), pp. 421–431.
   Google Scholar
• Ruiz, V., Pfrang, A., Kriston, A., Omar, N., Van den Bossche, P. and Boon-Brett, L. (2018) A review of international abuse testing standards and regulations for lithium ion batteries in electric and hybrid electric vehicles. Renewable and Sustainable Energy Reviews, 81, 1427–1452.
   Web of Science ®Google Scholar
• Rusdi, M., Moroi, Y., Nakahara, H., and Shibata, O. (2005) Evaporation from water−ethylene glycol liquid mixture. Langmuir: The ACS Journal of Surfaces and Colloids, 21(16), 7308–7310.
   PubMed Web of Science ®Google Scholar
• Ryntz, R. and Kozora, S. (2019) Sustainable materials in automotive. Physical Sciences Reviews, 4(12), 1–4.
   Web of Science ®Google Scholar
• Sarika, P. R., Nancarrow, P., Khansaheb, A. and Ibrahim, T. (2020) Bio-Based alternatives to phenol and formaldehyde for the production of resins. Polymers, 12(10), 2237.
   PubMed Web of Science ®Google Scholar
• Schnabel, T. (2009) Holzoberflächen - Klassifizierung, Modellbildung und Umweltsimulation von optischen Eigenschaften. Dissertation. Technische Universität München.
   Google Scholar
• Slabohm, M., Mai, C. and Militz, H. (2022) Bonding acetylated veneer for engineered wood products-a review. Materials (Basel, Switzerland), 15(10), 1.
   Web of Science ®Google Scholar
• Staudacher, R. (2015) Ausgewählte mechanische Eigenschaften von Furnier der Holzarten Fichte, Birke und Buche. Master thesis. Technical University of Graz.
   Google Scholar
• Tanritanir, E., Hiziroglu, S. and As, N. (2006) Effect of steaming time on surface roughness of beech veneer. Building and Environment, 41(11), 1494–1497.
   Web of Science ®Google Scholar
• Tarkow, H. and Stamm, A. J. (1955) Acetylated Wood.
   Google Scholar
• Teacă, C.-A. and Tanasă, F. (2020) Wood surface modification—classic and modern approaches in wood chemical treatment by esterification reactions. Coatings, 10(7), 629.
   Web of Science ®Google Scholar
• Wang, Y., Wang, T., Crocetti, R. and Wålinder, M. (2021) Mechanical Properties of Acetylated Birch Plywood Loaded Parallel to the Face Grain (World Conference on Timber Engineering).
   Google Scholar
• Wang, Y., Wang, T., Crocetti, R., and Wålinder, M. (2022) Experimental investigation on mechanical properties of acetylated Birch plywood and its angle-dependence. SSRN Electronic Journal.
   Google Scholar
• Wexler, A. (1976) Vapor pressure formulation for water in range 0 to 100°C. A revision. Journal of Research of the National Bureau of Standards Section A: Physics and Chemistry, 80A(5-6), 775–785.
   PubMedGoogle Scholar
• Zimmer, B., Hölzl, F., Bongers, F., Nüske, J., and Winkler, J. (2003) Erprobung eines Acetylierungsverfahrens für heimische Holzarten und Holzprodukte. Zusammenfassender Bericht der Ergebnisse.
   Google Scholar
• Žlahtič-Zupanc, M., Lesar, B. and Humar, M. (2018) Changes in moisture performance of wood after weathering. Construction and Building Materials, 193, 529–538.
   Web of Science ®Google Scholar