Splitting tendency of cellulosic fibers - Part 1. The effect of shear force on mechanical stability of swollen lyocell fibers

Cellulose

Volumn 13, Issue 4, 2006, Pages 393-402

  Öztürk, Hale Bahar ^a   Okubayashi, Satoko ^b   Bechtold, Thomas ^a  

^a UNIVERSITY OF INNSBRUCK   (Austria)

^b UNIVERSITY OF FUKUI   (Japan)

Author keywords

Alkali; Fiber; Fibrillation; Lyocell; Solvent retention value; Split number; Swelling

Indexed keywords

FIBERS; PRESSURE EFFECTS; SHEAR STRENGTH; SODIUM COMPOUNDS; SOLUTIONS; SWELLING;

CROCKMETER; LYOCELL FIBERS; RUB-FASTNESS; SOLVENT RETENTION VALUE; SPLIT NUMBER;

CELLULOSE;

CELLULOSE FIBERS; FIBER ANALYSIS; FIBRILLATION; FIBRILS; PRESSURE; RETENTION; SHEAR STRENGTH; SODIUM HYDROXIDE; SOLUTIONS; SPLITTING; SWELLING;

ALKALI; CELLULOSIC FIBER; FIBRIL; FIBRILLATION; LYOCELL FIBER;

EID: 33747264567     PISSN: 09690239     EISSN: None     Source Type: Journal    
DOI: 10.1007/s10570-006-9053-4     Document Type: Article

References (32)

1. AATCC Test Method 8-1996, Colorfastness to Crocking: AATCC Crockmeter Method.
2. Albrecht W., Reintjes M. and Wulfhorst B. 1997. Lyocell fibers (An alternative regenerated cellulose fibers), Man-made Year Book, September, 41-46.
3. Bourban C., Karamuk E., deFondaumiere M.J., Wintermantel E. (1997). Processing and characterization of a new biodegradable composite made of a PHB/V matrix and regenerated cellulosic fibers. J. Environ. Polym. Degrad. 5(3):159-166
4. Colom X., Carrillo F. (2002). Crystallinity changes in lyocell and viscose-type fibers by caustic treatment. Eur. Polym. J. 38:2225-2230
5. Crawshaw J., Cameron R.E. (2000a). A small angle X-ray scattering study of the pore structure in Tencel cellulose fibers and effects on physical treatments. Polymer 41:4691
6. Crawshaw J., Vickers V.E., Briggs N.P., Heenan R.K., Cameron R.E. (2000b). The hydration of Tencel cellulose fibers studied using contrast variation in small angle neutron scattering. Polymer 41:1873-1881
7. Denoyelle G. (1959). Action of soda solutions on native cellulose, formation of hydrated sodium cellulosate; swelling. Svensk Papperstidning 62:390-406
8. Hearle J.W.S. 1975. Fiber fracture and its relation to fiber structure and fiber end-uses, Contrib. Sci. Dev. Text. Ind., Jt. Conf.
9. Ibbett R.N., Hsieh Y.L. (2001). Effect of fiber swelling on the structure of lyocell fabrics. Textile Res. J. 71(2):164-173
10. Katz J.R., Seiberlich J. (1940). Swelling of cotton fibers in sodium hydroxide solutions and in the presence of lyotropic substances. Rayon Textile Monthly 21:746-748
11. Kennedy J., Phillips G., Williams P. (1996). Allomorphs of Cellulose and Other Polysaccharides. Cambridge, Woodhead Publishing Limited
12. Klemm D., Philipp B., Heinze T. (1998). Comprehensive cellulose chemistry: Fundamentals and analytical methods. vol. 1, Wiley. VCH Verlag, Weinheim
13. Lenz J., Schurz J., Wrentschur E. (1993). Properties and structure of solvent-spun and viscose-type fibers in the swollen state. Colloid Polym. Sci. 271:460-468
14. Lewin M., Sello S.B. (1983). Chemical Processing of Fibers and Fabrics, Part A Fundamentals and Preparation. Marcel Deckker, New York
15. Mantanis G.I., Young R.A, Rowell R.M. (1994). Swelling of wood Part 1. Swelling in water. Wood Sci.Technol. 28:119-134
16. Morton W.E., Hearle J.W.S. (1997). Physical Properties of Textile Fibers. Textile Institute, Manchester
17. Nemec H. (1994). Fibrillation of cellulosic materials - Can previous literature offer a solution? Lenzinger Berichte 74:69-72
18. Öztürk H.B., Bechtold T. (2005) Splitting tendency of cellulosic fibers. Lenzinger Berichte 84:123-130
19. Pavlov P.N. (1928). Adsorption and swelling of cellulose in sodium hydroxide solution. Kolloid-Zeitschrift 44:44-63
20. Peter M. and Rouette H.K. 1989. Grundlagen der Textilveredlung, 13. Auflage, Deutscher Fachverlag, Frankfurt.
21. Petitpas G., Petitpas T. (1952). Effect of temperature on the swelling and crystalline state of cellulose in caustic solutions. Memorial des Servises Chimiques de l'Etat 37(No. 3):265-269
22. Preston J.M., Nimkar M.V. (1949). Measuring the swelling of fibers in water. J. Text. Inst. 40:674-686
23. Rohrer C., Retzl P., Firgo H. (2001). Lyocell LF-profile of a fibrillation-free fiber from Lenzing. Lenzinger Berichte 80:75-81
24. Schurz J. (1994a). What is new about new fibers of the lyocell type? Lenzinger Berichte 74:37-40
25. Schurz J., Lenz J. (1994b). Investigations on the structure of regenerated cellulose fibers. Macromol. Symp. 83:273-389
26. Schuster K.C., Aldred P., Villa M., Baron M., Loidl R., Biganska O., Patlazhan S., Navard P., Rüf H., Jericha E. (2003). Characterising the emerging lyocell fibers structures by ultra small angle neutron scattering (USANS). Lenzinger Berichte 82:107-117
27. Taylor J.M. 1991. Fiber Teatment. European Patent Application, 0, 538, 977 A1, 18 pp.
28. Trotman E.R. 1984. Dyeing and Chemical Technology of Textile Fibers, Charles Griffin & Company Ltd., 6th edition, p. 97.
29. Zhang W., Okubayashi S., Bechtold T. (2003). Modification of fibrillation by textile chemical processing. Lenzinger Berichte 82:58-63
30. Zhang W., Okubayashi S., Bechtold T. (2005a). Fibrillation tendency of cellulosic fibers. Part 1: Effects of swelling. Cellulose 12(3):267-273
31. Zhang W., Okubayashi S., Bechtold T. (2005b). Fibrillation tendency of cellulosic fibers. Part 3: Effects of alkali pretreatment of lyocell fiber. Cellulose 59:173-179
32. Warwicker J.O. (1969). Swelling of cotton in alkalis and acids. J. Appl. Polym. Sci 13:41-54