NaOH 전처리 및 피브릴레이션 처리한 텐셀직물의 효소처리(II) -미세구조 변화-

Enzymatic Treatment of Tencel Fabrics Treated with NaOH and Prefibrillation(II) -Change of Microstructure-

  • 발행 : 1999.05.01

초록

Tencel fabrics were treated with NaOH, mechanically fibrillated, and hydrolyzed by cellulase. X-ray diffraction method, moisture regain, and K/S value were used to elucidate crystalline structural changes brought about by cellulase treatment. Degree of polymerization and copper number of the cellulase-treated fabrics were also measured to estimate the effect of hydrolysis. X-ray diffraction studies showed that crystalline structure and degree of crystallinity were not much changed by cellulase treatment. On the other hand, as cellulase hydrolysis progressed, moisture regain and K/S value increased slightly due to the increase in specific surface area from formation of fibrils. The degree of polymerization initially decreased with enzymatic hydrolysis and then levelled off. Copper number increased, however, to a great extent at initial stages of cellulase hydrolysis and decreased gradually. The NaOH-pretreated fabrics resulted in higher degree of crystallinity, degree of polymerization, moisture regain, and K/S value, but lower copper number than those of the fabrics without NaOH pretreatment at the same cellulase treatment conditions. These results were attributed to extraction of short molecular chains from amorphous region during NaOH pretreatment and the opening of the structure of the amorphous region.

키워드

참고문헌

  1. Sen'i Gakkaishi v.53 S. Sonobe
  2. Textilveredlung v.31 R. Breier
  3. Cellulose Chem.Technol. v.24 J. Lenz;J. Schurz
  4. Text. Res. J. v.66 M. Nicolai;A. Nechwatal;K. P. Mieck
  5. PCT Int. Appl. WO 96/28601 P. Kravchuk
  6. JP, 9-137384 K. Otoi;S. Abe
  7. Cellulose: Structure, Accessibility and Reactivity H. A. Krossig
  8. Cellulose Hydrolysis L. T. Fan;M. M. Gharpuray;Y. H. Lee
  9. Text. Res. J. v.64 G. Buschle-Diller;S. H. Zeronian;N. Pan;M. Y. Yoon
  10. Shizuoka-ken hamamatsu Kogyo Gijutsu Senta Kenkyu Hokoku v.5 A. Ishihara;Y. Maeshima;K. Oishi;H. Kino
  11. Sen'i Kako v.46 S. Dohi;Y. Maeshima;H. Kino;T. Inui
  12. Senshoku Kogyo v.44 M. Kimura
  13. Textilveredlung v.31 K. Bredereck;M.Gruber;A. Otterbach;F. Schulz
  14. J. Korean Fiber Soc. v.34 M. S. Lee;S. Y. Bae;M. C. Lee
  15. J. Korean Fiber Soc. v.36 K. Son;Y. Shin
  16. J. Korean Fiber Soc. v.32 H. S. Kim;S. Y. Bae;M. C. Lee;K. H. Kim;H. H. Cho
  17. Polymer Handbook (3rd Ed.) J. Brandrup;E. H. Immergut
  18. Text. Res. J. v.67 Y. L. Hsieh;X. P. Hu;A. Nguyen
  19. J. Korean Fiber Soc. v.33 S. Y. Bae;M. C. Lee;I. G. Shin;K. H. Kim
  20. J. Appl. Polym. Sci. v.65 R. Mori;T. Haga;T. Takagishi
  21. J. Appl. Polym. Sci. v.29 K. M. Paralikar;S. P. Bhatawdekar
  22. Colloid Polym. Sci. v.271 J. Lenz;J. Schurz;E. Wrentsdchur
  23. 靜岡懸濱松纖維工業試驗場報告 v.24 山岸政昭
  24. Thesis, Chonnam National University K. Son;D.H.E
  25. Text. Res. J. v.46 M. R. Rousselle;M. L. Nelson;C. B. Hassenboehler, Jr.;D. C. Legendre
  26. J. Appl. Polym. Sci. v.59 R. Mori;T. Haga;T. Takagishi
  27. J. Korean Soc. of Clothing and Textiles v.14 J. Y. Kang;H. S. Ryu
  28. J. Korean Fiber Soc. v.28 H. S. Park;Y. H. Kim