Monitoring creep-rupture in oriented Strandboard using acoustic emission: Effects of moisture contenta

Holzforschung

Volumn 58, Issue 4, 2004, Pages 387-399

  Vun, Ronnie Y ^a,c   Beall, Frank C ^b  

^a LOUISIANA STATE UNIVERSITY AGRICULTURAL CENTER   (United States)

^b UNIVERSITY OF CALIFORNIA   (United States)

^c Ultran Group   (United States)

Author keywords

Acoustic emission; Creep recovery; Creep rupture; Deflection; Flaw; Oriented Strandboard; Rupture pattern; Viscoelastic component

Indexed keywords

CREEP; DEFECTS; DEFLECTION (STRUCTURES); MOISTURE; MONITORING; STRESS ANALYSIS; VISCOELASTICITY; WOOD PRODUCTS;

CREEP RECOVERY; CREEP-RUPTURE; ORIENTED STRANDBOARD; RUPTURE PATTERN; VISCOELASTIC COMPONENTS;

ACOUSTIC EMISSIONS;

ACOUSTICS; CREEP; EMISSION; MOISTURE; MONITORING; STRESS ANALYSIS; VISCOELASTICITY; WOOD PRODUCTS;

EID: 3342925228     PISSN: 00183830     EISSN: None     Source Type: Trade Journal    
DOI: 10.1515/HF.2004.059     Document Type: Article

References (47)

1. Aicher, S., Hofflin, L., Dill-Langer, G. (2001) Damage evolution and acoustic emission of wood at tension perpendicular to fiber. Holz Roh- Werkstoff 59:104-116.
2. ASTM standard (2001) D 3043. Standard methods of testing structural panels in flexure. Vol.04.10, American Society of Testing and Materials, Philadelphia, Pennsylvania.
3. Arima, T., Maruyama, N., Sato, M. (1986) Creep of wood, wood-based materials and wood composite building elements at various conditions. In: International Union of Forest Resource Organizations. Group S5.02. Jubljana, Yugoslavia.
4. Bach, L., Zhao, N.W., Chang, J.J.R. (1993) Surface coating can reduce creep of OSB. Forest Prod. J. 43(6):43-44.
5. Bariska, M. (1985) Creep and fracture phenomena in wood tissues. In: Proc. Symposium on Forest Products Research International - Achievements and the Future. Pretoria, S. Africa. Vol. 1, pp. 16-18.
6. Beall, F.C. (1986) Effect of moisture conditioning on acoustic emission from particleboard. J. Acoustic Emission 5(2):71-76.
7. th. International Symposium on Acoustic Emission from Composite Materials, July 27-31, Seattle, Washington. American Society for Testing Materials, Columbus, Ohio. pp. 370-373.
8. Beall, F.C. (1994) Acoustic emission from oriented Strandboard during flexural testing. In: Proc. Progress in Acoustic Emission VII. The Japanese Society for Nondestructive Inspection, Sopporo, Japan. pp. 143-148.
9. Beall, F.C. (1996) Application of ultrasonic technology to wood and wood-based materials. In: Second International Conference on Development of Wood Science-Technology and Forestry. Sopran, Hungary. 10 pp.
10. Beall, F.C. (2002) Overview of the use of ultrasonic technologies in research on wood properties. Wood Sci. Technol. (36): 197-212.
11. Beattie, A.G. (1983) Acoustic emission, principles and instrumentation. J. Acoustic Emission 2(1/2):95-128.
12. Bodig, J., Jayne, B.A. (1993) Mechanics of wood and wood composites. Krieger Publishing, Malabar, Florida. Chapter 5 Rheological characteristics, pp. 176-229.
13. Bryan, E.L., Schniewind, A.P. (1965) Strength and rheological properties of particleboard as affected by moisture content and sorption. Forest Prod. J. 15(4): 143-148.
14. Cavalloni, C., Kirchheim, A. (1994) New acoustic emission sensors for in-process monitoring. In: Proc. Progress in Acoustic Emission VII. The Japanese Society for Nondestructive Inspection, Sopporo, Japan. pp. 91-97.
15. Chen, T-Y., Lin, J-S. (1997) Creep behavior of commercial wood-based boards under long-term loading at room conditions in Taiwan. Holz Roh- Werkstoff 55:371-376.
16. Dinwoodie, J.M., Pierce, C.B., Paxton, B.H. (1984) Creep in chipboard: Part 4. The influence of temperature and moisture content on the creep behavior of a range of boards at a single stress level. Wood Sci. Technol. 18:205-224.
17. Dinwoodie, J.M., Paxton, B.H., Pierce, C.B., Aloysius, E.J. (1985) Quantification and prediction of creep in particleboard and other wood-based sheet materials. In: Proc. Symposium on Forest Products Research - International Achievements and the Future. Pretoria, S. Africa. Vol. 6, pp. 9-14.
18. Dinwoodie, J.M., Robson, D.J., Higgins, J.S. (1991) Creep in chipboard: Part 8. The effect of steady-state moisture content, temperature and level of stressing on the relative creep behavior and creep modulus of a range of boards at a single stress level. Wood Sci. Technol. 25:225-238.
19. Dinwoodie, J.M., Higgins, J.S., Robson, D.J. (1992) Creep in particleboard: Part 11. The effect of cyclic changes in moisture content and temperature on the creep behavior of a range of boards at different levels of stressing. Wood Sci. Technol. 26:429-448.
20. European Committee for Standardization (1997) CEN/TC112. Wood-based panels: Determination of duration of load and creep factor. prENV 1156. Brussels, Belgium.
21. Fridley, K.J. (1992) Designing for creep in wood structures. Forest Prod. J 42(3): 23-28.
22. Gressel, P. (1972) Effect of time, climate and loading on the creep behavior of wood based materials. Part I. Previous investigation, test pian and research methods. Part II. Test results dependent on creep parameters. Part III. Discussion of results. Holz Roh- Werkstoff 30:259-266, 347-355, 479-488.
23. Halligan, A.F., Schniewind, A.P. (1972) Effect of moisture on physical and creep properties of particleboard. Forest Prod. J. 22(4):41-48.
24. Hamstad, M.A. (1986) A review: acoustic emission, a tool for composite materials studies. Exp. Mechanics 26(1):7-13.
25. Hamstad, M.A. (1994) An examination of piezoelectric polymers as wideband acoustic emission displacement sensors. In: Proc. Progress in Acoustic Emission VII. The Japanese Society for Nondestructive Inspection, Sopporo, Japan. pp. 79-86.
26. Haygreen, J., Hall, H., Yang, K.M. (1975) Studies of flexural creep behavior in particle board under changing humidity conditions. Wood Fiber 7(2):74-90.
27. Hsu, Nelson, N., Tsukahara., Y. (1994) Acoustic emission transmitted through a solid/fluid interface - Theory. In: Proc. Progress in Acoustic Emission VII. The Japanese Society for Nondestructive Inspection, Sopporo, Japan. pp. 553-558.
28. Laufenberg, T.L. (1986) Creep and creep-rupture in reconstituted panel products. In: Proc. International Workshop on Duration on Load in Lumber and Wood Products. Special publ. no. SP-27. Forintek Canada Corp. Vancouver, B.C. pp. 61-66.
29. Laufenberg, T.L. (1987) Creep testing of structural composite panels: A literature review and proposed standard. In: Proc. International Particleboard-Composite Materials Symposium. Ed. Maloney, T.M. Washington State University, Pullman, WA. pp. 297-313.
30. Leicester, R.H. (1971) A rheoiogical model for mechano-sorptive deflections of beams. Wood Sci. Technol. 5:211-220.
31. National Forest Products Association (1991) Design specification for wood construction. Washington DC.
32. McNatt, J.D., Laufenberg, T.L. (1991) Creep and creep-rupture of plywood and oriented Strandboard. In: Proc. International Timber Engineering Conference. TRADA, London, pp. 3.457-3.464.
33. McNatt, J.D., Wellwood, R.W., Bach, L. (1990) Relationships between small-specimen and large panel bending tests on structural wood-based panels. Forest Prod. J. 40(9):10-16.
34. ñski et al., 2000Moliñski, W., Raczkowski, J., Muszyñski, L. (2000) Acoustic emission generated upon mechano-sorptive creep of wood bent across to the grain under asymmetrical moistening. Holzforschung 54(3):305-308.
35. Moren, T.J., Sehlstedt-Persson, S.M. (1993) Creep response to drying of timber boards of Scots pine. Forest Prod. J. 43(10): 58-64.
36. Pierce, C. B., Dinwoodie, J.M., Paxton, B.H. (1979) Creep in chipboard: Part 2. The use of fitted response curves for comparative and predictive purposes. Wood Sci. Technol. 13:265-282.
37. Pritchard, J., Ansell, M.P., Thompson, R.J.H., Bonfield, P.W. (2001) Effect of two relative humidity environments on the performance properties of MDF, OSB and chipboard. Wood Sci. Technol. 35:405-423.
38. Pu, J.H., Tang, R.C., Davis, W.C. (1992a) Creep behavior of commercial oriented Strandboards under high relative humidity. Forest Prod. J. 42(4):49-54.
39. Pu, J.H., Tang, R.C., Price, E.W. (1992b) Effect of hot and humid environmental conditions on the creep of commercial structural oriented Strandboard. Forest Prod. J. 42(11/12):9-14.
40. RILEM TC 003-TT/CIB-W18. RILEM Recommendation TT 2: Testing methods for plywood in structural grades for use in load-bearing structures. In: RILEM Technical Recommendations for the Testing and Use of Construction Materials - International Union of Testing and Research Laboratories for Materials and Structures. Sponpress, London (1994). pp. 343-351.
41. Sato, K., Kamei, N., Fushitani, M., Noguchi, M. (1984) Discussion of tensile fracture of wood using acoustic emissions: a statistical analysis between the relationships of AE and fracture stress. J. Japan Wood Res. Soc. 30(8):653-659.
42. Schniewind, A.P. (1967) Creep-rupture life of Douglas fir under cyclic environmental conditions. Wood Sci. Technol. 1:278-288.
43. Schniewind, A.P., Quarles, S.L., Lee, S.-H. (1996) Wood fracture, acoustic emission and the drying process: Part 1. Acoustic emission associated with fracture. Wood Sci. Technol. 30:273-281.
44. Stanzl-Tschegg, S.E., Tan, D.M., Tschegg, E.K. (1996) Fracture resistance to the crack propagation in wood. J Fracture 75:347-356.
45. Sugiyama, H. (1967) On the effect of the loading time on the strength properties of wood. Wood Sci. Technol. 1:289-303.
46. Van Wyk, W.J., Gerischer, G.F.R. (1985) Creep behavior of laminated pine beams under sustained loading. In: Proc. Symposium on Forest Products Research International, Pretoria, S. Africa. Vol. 4, pp. 3-22.
47. Yeh, M.C., Tang, R.C., Hse, C.Y. (1990) Flexural creep of structural flakeboard under cyclic humidity. Forest Prod. J. 40(10):51-57.