Mechano-sorptive creep under compressive loading - A micromechanical model

International Journal of Solids and Structures

Volumn 45, Issue 9, 2008, Pages 2420-2450

  Strömbro, Jessica ^a   Gudmundson, Peter ^a  

^a ROYAL INSTITUTE OF TECHNOLOGY   (Sweden)

Author keywords

Accelerated creep; Compression; Creep; Fibre bonding; Fibre network; Fibres; Humidity change; Mathematical model; Mechano sorptive creep; Modelling; Moisture changes; Network model; Paper; Sorption; Tension

Indexed keywords

LOADS (FORCES); MATHEMATICAL MODELS; MOISTURE; SORPTION;

COMPRESSIVE LOADING; HUMIDITY CHANGE; HYGROEXPANSION; MECHANO-SORPTIVE CREEP; MOISTURE CYCLING;

CREEP;

EID: 40649090096     PISSN: 00207683     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.ijsolstr.2007.12.002     Document Type: Article

References (50)

1. Alfthan J., Gudmundson P., and Östlund S. A micro-mechanical model for mechano-sorptive creep in paper. Journal of Pulp and Paper Science 28 3 (2002) 98-104
2. Alfthan J. A simplified network model for mechano-sorptive creep in paper. Journal of Pulp and Paper Science 29 7 (2003) 228-234
3. Alfthan J. The effect of humidity cycle amplitude on accelerated tensile creep of paper. Mechanics of Time-Dependent Materials 8 4 (2004) 289-302
4. Alfthan J., and Gudmundson P. Linear constitutive model for mechano-sorptive creep in paper. International Journal of Solids and Structures 42 24-25 (2005) 6261-6276
5. Armstrong L.D., and Kingston R.S.T. Effect of moisture changes on creep in wood. Nature 185 4716 (1960) 862-863
6. Armstrong L.D., and Christensen G.N. Influence of moisture changes on deformation of wood under stress. Nature 191 4791 (1961) 869-870
7. Bergander A., and Salmén L. Cell wall properties and their effects on the mechanical properties of fibers. Journal of Materials Science 37 1 (2002) 151-156
8. Brezinski J.P. The creep properties of paper. Tappi 39 2 (1956) 116-128
9. Byrd V.L. Effect of relative humidity changes during creep on handsheet paper properties. Tappi 55 2 (1972) 247-252
10. Byrd V.L. Effect of relative humidity changes on compressive creep response of paper. Tappi 55 11 (1972) 1612-1613
11. Cox H.L. The elasticity and strength of paper and other fibrous materials. British Journal of Applied Physics 3 3 (1952) 72-79
12. DeMaio A., and Patterson T. Influence of bonding on the tensile creep behavior of paper in a cyclic humidity environment. Mechanics of Time-Dependent Materials 10 1 (2006) 17-33
13. Gallay W. Stability of dimensions and form of paper. Tappi 56 11 (1973) 54-63
14. Gellerstedt, G. (Ed.), 2004. The Ljungberg Textbook, Paper Physics. KTH Fibre and Polymer Technology, Royal Institute of Technology (KTH), Stockholm, Sweden, Chapter 47, p. 12.
15. Gibson E.J. Creep of wood: Role of water and effect of a changing moisture content. Nature 206 4980 (1965) 213-215
16. Gunderson, D.E., Tobey, W.E., 1990. Tensile creep of paperboard - effect of humidity change rates. In: Caulfield, D.F., Passaretti, J.D., Sobczynski, S.F. (Eds.), Materials interaction relevant to the pulp, paper, and wood industries. Materials Research Society symposium proceedings, vol. 197, San Francisco, California, pp. 213-226.
17. Habeger C.C., and Coffin D.W. The role of stress concentrations in accelerated creep and sorption-induced physical aging. Journal of Pulp and Paper Science 26 4 (2000) 145-157
18. Halsey G., White H.J., and Eyring H. Mechanical properties of textiles, I. Textile Research Journal 15 9 (1945) 295-311
19. Haslach H.W. The mechanics of moisture accelerated tensile creep in paper. Tappi Journal 77 10 (1994) 179-186
20. Haslach H.W., and Zeng N. Maximum dissipation evolution equations for non-linear thermoviscoelasticity. International Journal of Non-linear Mechanics 34 2 (1999) 361-385
21. Hoffmeyer P., and Davidson R.W. Mechano-sorptive creep mechanism of wood in compression and bending. Wood Science and Technology 23 3 (1989) 215-227
22. Hoffmeyer P. Non-linear creep caused by slip plane formation. Wood Science and Technology 27 5 (1993) 321-335
23. Holland H.D., Halsey G., and Eyring H. Mechanical properties of textiles, VI A study of creep of fibers. Textile Research Journal 16 5 (1946) 201-210
24. Karlsson H., and Fransson P.-I. STFI FiberMaster gives papermakers new muscle - new knowledge concerning fiber shape can be the key to paper of the future. Svensk Papperstidning Nordisk Cellulosa 97 10 (1994) 26-28
25. Komori T., and Makishima K. Numbers of fiber-to-fiber contacts in general fiber assemblies. Textile Research Journal 47 1 (1977) 13-17
26. Mackay B.H., and Downes J.G. The effect of the sorption process on the dynamic rigidity modulus of the wool fiber. Journal of Applied Polymer Science 2 4 (1959) 32-38
27. MATLAB, 2006. MATLAB 7.3.0. The MathWorks, Inc, Natick, Massachusetts.
28. Mohlin U.-B., Dahlbom J., and Hornatowska J. Fiber deformation and sheet strength. Tappi Journal 79 6 (1996) 106-111
29. Mårtensson A. Mechano-sorptive effects in wooden material. Wood Science and Technology 28 6 (1994) 437-449
30. Neagu, R.C., 2006. Hygroelastic behaviour of wood-fibre based materials on the composite, fibre and ultrastructural level. PhD Thesis, KTH Solid Mechanics, Royal Institute of Technology (KTH), Stockholm, Sweden, pp. D20 and F9.
31. Niskanen, K. (Ed.), 1998. Paper Physics, Papermaking Science and Technology book 16. Fapet Oy, Helsinki, pp. 57, 59, 91 and 233.
32. Nordon P. Some torsional properties of wool fibers. Textile Research Journal 32 7 (1962) 560-568
33. Olsson A.-M., and Salmén L. Molecular mechanisms involved in creep phenomena of paper. Journal of Applied Polymer Science 79 9 (2001) 1590-1595
34. Olsson A.-M., Salmén L., Eder M., and Burgert I. Mechano-sorptive creep in wood fibres. Wood Science and Technology 41 1 (2007) 59-67
35. Padanyi, Z.V., 1991. Mechano-sorptive effects and accelerated creep in paper. In: 1991 International Paper Physics Conference Proceedings, Kona, Hawaii, pp. 397-411.
36. Padanyi, Z.V., 1993. Physical aging and glass transition: Effects on the mechanical properties of paper and board. In: Baker, C.F. (Ed.), Products of Papermaking, Transactions of the Tenth Fundamental Research Symposium Held at Oxford, vol. 1. Pira International, Leatherhead, pp. 521-545.
37. Page, D.H., Tydeman, P.A., 1962. A new theory of the shrinkage, structure and properties of paper. In: Bolam, F. (Ed.), The Formation and Structure of Paper, Transactions of the Symposium Held at Oxford September 1961. British Paper and Board Makers Association, Technical Section, London, pp. 397-425.
38. Panek J., Fellers C., and Haraldsson T. Principles of evaluation for the creep of paperboard in constant and cyclic humidity. Nordic Pulp & Paper Research Journal 19 2 (2004) 155-163
39. Pickett G. The effect of change in moisture-content of the creep of concrete under a sustained load. Journal of the American Concrete Institute 13 4 (1942) 333-355
40. Ranta-Maunus A. The viscoelasticity of wood at varying moisture content. Wood Science and Technology 9 3 (1975) 189-205
41. Salmén L. Micromechanical understanding of the cell-wall structure. Comptes Rendus Biologies 327 9-10 (2004) 873-880
42. Schulgasser K., and Page D.H. The influence of transverse fibre properties on the in-plane elastic behaviour of paper. Composites Science and Technology 32 4 (1988) 279-292
43. Sedlachek, K.M., 1995. The effect of hemicelluloses and cyclic humidity on the creep of single fibers. PhD Thesis, Institute of Paper Science and Technology, Atlanta, Georgia.
44. Söremark C., and Fellers C. Mechano-sorptive creep and hygroexpansion of corrugated board in bending. Journal of Pulp and Paper Science 19 1 (1993) J19-J26
45. Söremark, C., Fellers, C., Henriksson, L., 1993. Mechano-sorptive creep of paper - Influence of drying restraint and fibre orientation. In: Baker, C.F. (Ed.), Products of Papermaking, Transactions of the Tenth Fundamental Research Symposium Held at Oxford, vol. 1. Pira International, Leatherhead, pp. 547-574.
46. Urbanik T.J. Hygroexpansion-creep model for corrugated fiberboard. Wood and Fiber Science 27 2 (1995) 134-140
47. van den Akker, J.A., 1962. Some theoretical considerations on the mechanical properties of fibrous structures. In: Bolam, F. (Ed.), The Formation and Structure of Paper, Transactions of the Symposium Held at Oxford September 1961, vol. 1. British Paper and Board Makers Association, Technical Section, London, pp. 205-241.
48. Wang J.Z., Dillard D.A., Wolcott M.P., Kamke F.A., and Wilkes G.L. Transient moisture effect in fibers and composite materials. Journal of Composite Materials 24 9 (1990) 994-1009
49. Wang J.Z., Dillard D.A., and Ward T.C. Temperature and stress effects in the creep of aramid fibers under transient moisture conditions and discussions on the mechanism. Journal of Polymer Science Part B: Polymer Physics 30 12 (1992) 1391-1400
50. Wang, J.Z., Davé, V., Glasser, W., Dillard, D.A., 1993. The effects of moisture sorption on the creep behavior of fibers. In: Harris, C., Gates, T. (Eds.), High Temperature and Environmental Effects on Polymeric Composites, ASTM STP 1174. American Society for Testing and Materials, Philadelphia, pp. 186-200.