A Poisson Model of Nonwoven Fiber Assemblies in Compression at High Stress

Textile Research Journal

Volumn 68, Issue 5, 1998, Pages 371-384

  Schoppee, Meredith M ^a  

^a Albany International Research Co   (United States)

Author keywords

[No Author keywords available]

Indexed keywords

FABRICS, NONWOVEN; FIBRE ARRANGEMENT; MATHEMATICAL MODEL; NYLON FIBRES;

EID: 0031879044     PISSN: 00405175     EISSN: None     Source Type: Journal    
DOI: 10.1177/004051759806800507     Document Type: Article

References (18)

1. Camaby, G.A., and Pan, N., Theory of the Compression Hysteresis of Fibrous Assemblies, Textile Res. J. 59, 275-284 (1989).
2. Dunlop, J.I., The Dynamic Bulk Modulus of Fibre Masses, J. Textile Inst. 72, 154-161 (1981).
3. Jones, R.L., The Effect of Fiber Structural Properties on Compression Response of Fiber Beds. Tappi 46, 20-28 (1963).
4. Kallmes, O., and Corte, H., The Structure of Paper, Part 1: The Statistical Geometry of an Ideal Two Dimensional Fiber Network, Tappi 43, 737-752 (1960).
5. Kawabata, S., Measurement of the Transverse Mechanical Properties of High-performance Fibres, J. Textile Inst. 81, 432-447 (1990).
6. Komori, T., and Makishima, K., Numbers of Fiber-to-Fiber Contacts in General Fiber Assembles, Textile Res. J. 47, 13-17 (1977).
7. Komori, T., and Itoh, M., A. New Approach to the Theory of the Compression of Fiber Assemblies, Textile Res. J. 61, 420-428 (1991).
8. Komori, T., and Itoh, M., Theory of the General Deformation of Fiber Assemblies. Textile Res. J. 61, 588-594 (1991).
9. Komori, T., Itoh, M., and Takaku. A., A Model Analysis of the Compressibility of Fiber Assemblies, Textile Res. J. 62, 567-574 (1992).
10. Lee, D.H., and Lee. J.K., Initial Compressional Behavior of a Fibre Assembly, in “Objective Measurement Applications to Product Design and Process Control,” S. Kawabata, R. Postle, and M. Niwa, Eds., The Textile Machinery Society of Japan, Osaka, 1985, pp. 613-622.
11. Lee, D.H., Camaby, G.A., Carr, A.J., and Moss, P.J., A Review of Current Micromechanical Models of the Unit Fibrous Cell, WRONZ Communications no. C113, 1990.
12. Lee, D.H., and Camaby, G.A., Compressional Energy of the Random Fiber Assembly, Part I: Theory, Textile Res. J. 62, 185-191 (1992).
13. Lee, D.H., Carnaby, G.A., and Tandon, S.K., Compressional Energy of the Random Fiber Assembly, Part II: Evaluation, Textile Res. J. 62, 258-265 (1992).
14. Meyer, Stuart L., “Data Analysis for Scientists and Engineers,” J. Wiley & Sons, Inc., NY, 1975, pp. 181-182, 207-208.
15. Oliver, J.F., and Wiseman, N., Water Removal in Wet Pressing: The Effect of Felt Roughness, in “Trans. of the Technical Section, Canadian Pulp & Paper Assoc.,” Montreal, Jan. 30-Feb. 3, 1978, vol. 4, 1978, pp. TR104-109.
16. Österberg. L.B., Compression of Press Felts, Nordic Pulp Paper Res. J. (special Issue) (3), 36-39 (1988).
17. Phoenix, S.L., and Skelton, J., Transverse Compressive Moduli and Yield Behavior of Some Orthotropic, High-Modulus Filaments, Textile Res. J. 44, 934-940 (1974).
18. van Wyk, C.M., Note on the Compressibility of Wool, J. Textile Inst. 37, T285-292 (1946).