DSC Studies of the Melting Behavior of α-Form Crystallites in Wool Keratin

Textile Research Journal

Volumn 67, Issue 2, 1997, Pages 117-123

  Cao, Jinan ^b   Joko, Kyohei ^a,b   Cook, John R ^b  

^a Osaka Pref Indust Technol Res I   (Japan)

^b CSIRO   (Australia)

Author keywords

[No Author keywords available]

Indexed keywords

DEGRADATION; DIFFERENTIAL SCANNING CALORIMETRY; MELTING; SILICONES; THERMOANALYSIS;

CRYSTALLITE; ENDOTHERMS; SILICONE OIL; THERMOGRAMS;

WOOL FIBERS;

CRYSTALLITES; THERMAL PROPERTIES; WOOL;

EID: 0001514744     PISSN: 00405175     EISSN: 17467748     Source Type: Journal    
DOI: 10.1177/004051759706700207     Document Type: Article

References (20)

1. Bendit E. G., Melting of α-Keratine in Vacuo, Textile Res. J. 36, 580–581 (1966).
2. Crighton J. S., The Characterisation of Destabilised and Stabilised Wool, in “Proc. 8th Int. Wool Text. Res. Conf.,” Christchurch, NZ, 1990, p. 1419.
3. Crighton J. S. Findon W. M., The Effect of Heat on Wool: Thermoanalytical Studies, in “Proc. 6th Int. Wool Text. Res. Conf.,” Pretoria, 1980, pp. 235–254.
4. Crighton J. S. Hole E. R., A Study of Wools in Aqueous Media by High Pressure Differential Thermal Analysis, in “Proc. 7th Int. Wool Text. Res. Conf.,” Tokyo, 1985, pp. 1283–292.
5. Deutz H. Wortmann F. J. Höcker H., High Pressure DSC of Ortho- and Paracortical Cells Isolated from Merino Wool, Int. Wool Text. Org., Tech. Comm. Rep. no. 7, Istanbul, May 1993.
6. Ebert G. Müller F. H., Calorimetric Investigations on the Heat of Transition of Wool During Supercontraction, in “Proc. 3rd Int. Wool Text. Res. Conf.,” CIRTEL, Paris, 1965, pp. 487–493.
7. Eisele U., “Introduction to Polymer Physics,” Springer-Verlag, Berlin, 1990.
8. Felix W. D. McDowall M. A. Eyring H., The DTA of Natural and Modified Wool and Mohair, Textile Res. J. 33, 465–471 (1963).
9. Feughelman M. Mitchell T. W., The Melting of α-Keratin in Water, Textile Res. J. 36, 578–579 (1966).
10. Haly A. R. Snaith J. W., Differential Thermal Analysis of Wool—The Phase Transition Endotherm under Various Conditions, Textile Res. J. 37, 898–907 (1967).
11. Lide D. R., “CRC Handbook of Chemistry and Physics,” 71st ed., Boca Raton, vol. 12, 1990, p. 122.
12. Nishi T. Wang T. T., Melting Point Depression and Kinetic Effects of Cooling on Crystallization in Poly(vinylidene fluoride) – Poly (methyl methacrylate) Mixture, Macromolecules 8, 909–915 (1975).
13. Sakabe H. Miyamoto T. Inagaki H., DTA of Component Proteins from Wool, Sen-i Gakkaishi 38, T517–522 (1982).
14. Schwenker R. F. Dusenbury J. H., Differential Thermal Analysis of Protein Fibers, Textile Res. J. 30, 800–801 (1960).
15. Spei M. Holzen R., DSC Studies of Thermal Pretreated (annealed) Fibre Keratins and Fibre Keratin Model Substances, Melliand Textiber. 70, P371–376 (1989).
16. Spei M. Holzen R., The α-β Transition of Fibre Keratines, Melliand Textiber. 70, P874–877 (1989).
17. Spei M. Holzen R., Helix Content of Extended and Annealed Keratins, in “Proc. 8th Wool Text. Res. Conf.,” Christchurch, 1990, pp. 1488–497.
18. Watt I. C. D'Arcy R. L., 26 Water-Vapour Adsorption Isotherms of Wool, J. Textile Inst. 27, 298–307 (1971).
19. Wortmann F. J. Deutz H., Characterizing Keratins Using High Pressure DSC, J. Appl. Polym. Sci. 48, 137–50 (1993).
20. Zahn H., Future Problems in Wool Structure and Textile Research, in “Symposium on the Biology of Wool and Hair,” Rogers G. E. et al., Eds., Chapman #38;#38; Hall, London, 1989, p. 495.