PAPERmaking! Vol6 Nr1 2020

Cellulose (2019) 26:1995–2012

2011

Gierlinger N, Wimmer R (2004) Radial distribution of heart- wood extractives and lignin in mature European Larch. Wood Fiber Sci 36(3):387–394 Groom L, Mott L, Shaler S (2002) Mechanical properties of individual Southern pine fibers. Part I. Determination and variability of stress–strain curves with respect to tree height and juvenility. Wood Fiber Sci 34(1):14–27 Hamad W, Gurnagul N, Gulati D (2012) Analysis of fibre deformation processes in high-consistency refining based on Raman microscopy and X-ray diffraction. Holz- forschung 66:711–716 Hardacker KW (1970) Effects of loading rate, span and beating on individual wood fiber tensile properties. In: Page DH (ed) The physics and chemistry of wood pulp fibers. Tappi Stap 8:201–216 Hardacker KW, Brezinski JP (1973) The individual fiber prop- erties of commercial pulps. Tappi 56(4):154–157 Hill RL (1967) The creep behavior of individual pulp fibers under tensile stress. Tappi 56(8):432–440 Hornatowska J (2009) Fracture mechanisms observed during tensile testing of single fibres. Workshop on Single Fiber Testing and Modeling, Innventia AB, Stockholm, Sweden, 4–5 November, 2009, pp. 17 Hubbe MA (2014) Prospects for maintaining strength of paper and paperboard products while using less forest resources: a review. BioResources 9(1):1634–1763 Ilvessalo-Pla¨ffli MS (1995) Fiber atlas: identification of paper- making fibers. Springer, Berlin, pp 33–163 Jajcinovic M, Fischer WJ, Hirn U, Bauer W (2016) Strength of individual hardwood fibres and fibre to fibre joints. Cellu- lose 23:2049–2060 Janes RL (1992) Fiber characteristics. Tappi Notes Jayme BA (1959) Mechanische Eigenschaften von Holzfasern. Tappi 42(6):461–467 Jentzen CA (1964) The effect of stress applied during drying on some of the properties of individual pulp fibers. Tappi 47(7):412–418 Kallmes OJ, Perez M (1965a) Load/elongation properties of fibres. In: Consolidation of the paper web, Trans. IIIrd Fund. Res. Symp. Cambridge, pp 507–528 Kallmes OJ, Perez M (1965b) A new theory for the load/elon- gation properties of paper. In: Consolidation of the paper web, Trans. IIIrd Fund. Res. Symp. Cambridge, pp 779–800 Kappel L, Hirn U, Bauer W, Schennach R (2009) A novel method for the determination of bonded area of individual fiber-fiber bonds. Nord Pulp Pap Res J 24(2):199–205 Ketola A, Strand A, Sundberg A, Kouko J, Oksanen A, Salmi- nen K, Fu S, Retulainen E (2018) Effect of micro and nanofibrillated cellulose on the drying shrinkage, extensi- bility, and strength of fibre networks. BioResources 13(3):5319–5342 Keunecke D, Eder M, Burgert I, Niemtz P (2008) Microme- chanical properties of common yew ( Taxus baccata ) and Norway spruce ( Picea abies ) transition wood fibers sub- jected to longitudinal tension. J Wood Sci 54(5):420–422 Khakalo A, Vishtal A, Retulainen E, Filpponen I, Rojas OJ (2017a) Mechanically-induced dimensional extensibility of fibers towards tough fiber networks. Cellulose 24:191–205. https://doi.org/10.1007/s10570-016-1102-z

Khakalo A, Kouko J, Filpponen I, Retulainen E, Rojas O (2017b) In-plane compression and biopolymer permeation enable superstretchable fiber webs for thermoforming toward 3-D structures. ACS Sustain Chem Eng 5(10):9114–9125. https://doi.org/10.1021/acssuschemeng. 7b02025 Kouko J, Retulainen E (2018) The relationship between shrinkage and elongation of bleached softwood kraft pulp sheets. Nord Pulp Pap Res J. https://doi.org/10.1515/npprj- 2018-3057 Kouko J, Seta¨la¨ H, Tanaka A, Khakalo A, Ropponen J, Retu- lainen E (2018) The effect of oxyalkylation and application of polymer dispersions on the thermoformability and extensibility of paper. Carbohydr Polym 186:411–419. https://doi.org/10.1016/j.carbpol.2018.01.071 Leopold B (1966) Effect of pulp processing on individual fiber strength. Tappi 49(7):315–318 Leopold B, McIntosh DC (1961) Chemical composition and physical properties of wood fibres. Tensile strength of individual fibers from alkali extracted loblolly pine holo- cellulose. Tappi 44(3):235–240 Lichtenegger H, Reiterer A, Stanzl-Tschegg SE, Fratzl P (1999) Variation of cellulose microfibril angles in softwoods and hardwoods: a possible strategy of mechanical optimization. J Struct Biol 128:257–269 Lindstro¨m T, Wa˚gberg L, Larsson T (2005) On the nature of joint strength in paper—a review of dry and wet strength resins used in paper. In: I’Anson SJ (ed) Advances in paper science and technology, Trans. XIIIth Fund. Res. Symp. Oxford, pp 457–562 Long JM, Batchelor WJ (2018) Influence of tensile straining and fibril angle on the stiffness and strength of previously dried kraft pulp fibers. Tappi J 17(7):383–392 Lorbach C, Fischer WJ, Gregorova A, Hirn U, Bauer W (2014) Pulp fiber bending stiffness in wet and dry state measured from moment of inertia and modulus of elasticity. BioRe- sources 9(3):5511–5528 Lundahl MJ, Cunha AG, Rojo E, Papageorgiou AC, Rautkari L, Arboleda JC, Rojas OJ (2016) Strength and water inter- actions of cellulose I filaments wet-spun from cellulose nanofibril hydrogels. Sci Rep 6:30695. https://doi.org/10. 1038/srep30695 Lundqvist S-O (2002) Efficient wood and fiber characterization: a key factor in research and operation. Ann For Sci 59:491–501. https://doi.org/10.1051/forest:2002033 Luostarinen K (2012) Tracheid wall thickness and lumen diameter in different axial and radial locations in cultivated Larix sibirica trunks. Silva Fenn 46(5):707–716 Ma¨kela¨ P (2009) Effect of drying conditions on the tensile properties of paper. In: I’Anson SJ (ed) Trans. XIVth Fund. Res. Symp. Oxford, 2009, pp 1079–1094 McIntosh DC, Uhrig LO (1968) Effect of refining on load- elongation characteristics of Loblolly pine holocellulose and unbleached kraft fibers. Tappi 51(6):268–273 Mohlin U-B, Dahlbom J, Hornatowska J (1996) Fiber defor- mation and sheet strength. Tappi 79(6):105–111 Mott L, Shaler SM, Groom LH, Liang BH (1995) The tensile testing of individual wood fibres using ESEM and video image analysis. Tappi 78(5):143–148 Mott L, Groom L, Shaler S (2002) Mechanical properties of individual Southern pine fibers. Part II. Comparison of

123

Made with FlippingBook Digital Publishing Software