Abstract
The interface stress distributions in adhesive butt joints subjected to tensile and cleavage loadings are described using two-dimensional theory of elasticity. Interface stress distributions of adhesive band butt joints are also discussed. In addition, the effects of adhesive Young’s modulus and the adhesive thickness on the interface stress distributions are shown. For adhesive tubular butt joints, the effects on the interface stress distributions are described using axi-symmetrical theory of elasticity. It is shown that singular stresses occur at the edges of the interfaces. It is also observed that the singular stresses decrease as the adhesive Young’s modulus increases and the adhesive thickness decreases. Finally, a method of stress analysis for bonded shrink fitted joints is described and it is demonstrated that the strengths of bonded shrink fitted joints are larger than those of shrink fitted joints.
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References
Andersson T. and Biel A. (2006) On the Effective Constitutive Properties of a Thin Adhesive Layer Loaded in Peel. Int J Frac 141: 227–246
Chen D. and Cheng S. (1992) Torsional Stress in Tubular Lap Joints. Int J Solids Struct 29(7): 845–853
Cheng J., Wu X., Li G., Pang S. and Taheri F. (2007) Design and Analysis of a Smart Composite Pipe Joint System Integrated with Piezoelectric Layers Under Bending. Int J Solids Struct 44: 298–319
Ding S. and Kumosa M. (1994) Singular Stress Behavior at an Adhesive Interface Corner. Eng Frac Mech 47(4): 503–519
Hollaway L., Romhi A. and Gunn M. (1990) Optimisation of Adhesive Bonded Composite Tubular Sections. Compos Struct 16: 125–170
Kim W. T. and Lee D. G. (1995) Torque Transmission Capabilities of Adhesively Bonded Tubular Lap Joints for Composite Drive Shafts. Compos Struct 30: 229–240
Öchsner A. and Grácio J. (2007) An Evaluation of the Elastic Properties of an Adhesive Layer Using the Tensile-Butt Joint Test: Procedures and Error Estimates. Int J Adhes Adhes 27: 129–135
Öchsner A., Stasiek M., Mishuris G. and Grácio J. (2007) A New Evaluation Procedure for the Butt-Joint Test of Adhesive Technology: Determination of the Complete Set of Linear Elastic Constants. Int J Adhes Adhes 27: 703–711
Pugno N. and Carpinteri A. (2003) Tubular Adhesive Joints Under Axial Load. Trans ASME 70: 832–839
Reedy Jr E. D. (1993) Asymptotic Interface Corner Solutions for Butt Tensile Joints. Int J Solids Struct 30(6): 767
Reedy Jr E. D. and Guess T. R. (1993) Comparison of Butt Tensile Strength Data with Interface Corner Stress Intensity Factor Prediction. Int J Solids Struct 30(21): 2929–2936
Sawa T., Ishikawa H. and Temma K. (1987) Three-Dimensional Stress Analysis of Adhesive Butt Joints Subjected to Tensile Loads (The Case Where Adherends are Two Hollow Cylinders) Transactions of JSME, Part A 53(492): 1685–1691
Sawa T., Nakano Y. and Temma K. (1987) A Stress Analysis of Butt Adhesive Joints Under Torsional Loads. J Adhes 24: 245–258
Sawa T., Temma K. and Ishikawa H. (1989) Three-Dimensional Stress Analysis of Adhesive Butt Joints of Solid Cylinders Subjected to External Tensile Loads. J Adhes 31: 33–43
Sawa T., Temma K., Nishigaya T. and Ishikawa H. (1995) A Two-Dimensional Stress Analysis of Adhesive Butt Joints of Dissimilar Adherends Subjected to Tensile Loads. J Adhes Sci Technol 9(2): 215–236
Sawa T. and Uchida H. (1997) Two-Dimensional Stress Analysis and Strength Evaluation of Band Adhesive Butt Joints Subjected to Tensile Loads. J Adhes Sci Technol 11(6): 811–833
Sawa T., Yoneno M. and Motegi Y. (2001) J. Adhes Sci Technol 15(1): 23–42
Seo D. W. and Lim J. K. (2005) Tensile, Bending and Shear Strength Distributions of Adhesive-Bonded Butt Joint Specimens. Compos Sci Technol 65: 1421–1427
Shahid M. and Hashim S. A. (2002) Effect of Surface Roughness on the Strength of Cleavage Joints. Int J Adhes Adhes 22: 235–244
Temma K., Sawa T. and Iwata A. (1990) Two-Dimensional Stress Analysis of Adhesive Butt Joints Subjected to Cleavage Loads. Int J Adhes Adhes 10(4): 285–293
Temma K., Sawa T., Nishigaya T. and Ichida H. (1994) Two-Dimensional Stress Analysis and Strength of Band Adhesive Butt Joints of Dissimilar Adherends Subjected to External Bending Moments. JSME Int J Series A 37(3): 246
Thomsen O. T. (1992) Elasto-Static and Elasto-Plastic Stress Analysis of Adhesive Bonded Tubular Lap Joints. Compos Struct 21: 249–259
Wright M. D. (1978) Compos 9(4): 259–262
Xu L. R., Sengupta S. and Kuai H. (2004) An Experimental and Numerical Investigation of Adhesive Bonding Strengths of Polymer Materials. Int J Adhes Adhes 24: 455–460
Zanni-Deffarges M. P. and Shanahan M. E. R. (1993) Evaluation of Adhesive Shear Modulus in a Torsional Joint: Influence of Ageing. Int J Adhes Adhes 13(1): 41–45
Zhou H. and Rao M. D. (1993) Vicoelastic Analysis of Bonded Tubular Joints Under Torsion. Int J Solids Struct 30(16): 2199–2211
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Sawa, T. (2008). Analytical Models with Stress Functions. In: da Silva, L.F.M., Öchsner, A. (eds) Modeling of Adhesively Bonded Joints. Springer, Berlin, Heidelberg. https://doi.org/10.1007/978-3-540-79056-3_3
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DOI: https://doi.org/10.1007/978-3-540-79056-3_3
Publisher Name: Springer, Berlin, Heidelberg
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