The Dynamic Fracture Analysis of the Adhesively Bonded Materials under Shear Loading

Yan Hong Cai; Hao Ran Chen

doi:10.4028/www.scientific.net/KEM.334-335.141

Paper Titles

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Taiwan’s Composites and FRP Industries: Current Status and Future Developments
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Study on the Mechanical Properties of Tissue-Mimicking Phantom Composites Using Ultrasound Indentation
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Numerical and Experimental Studies on Cured Shape of Thin Unsymmetric Carbon/Epoxy Laminates
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The Dynamic Fracture Analysis of the Adhesively Bonded Materials under Shear Loading
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Fabrication and Characteristics of Carbon Fiber Reinforced C–SiC Dual Matrix Composites
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Electrical Properties of Hot Press Sintered NASICON Ceramics
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The Influence of the End of the Incidence Pole on the K_Id of the Three Point Bending Specimen Tested by the SHPB
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Nonlinear Analysis of the In-Plane Young’s Moduli of Two-Dimensional Cellular Materials with Negative Poisson’s Ratios
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The Dynamic Fracture Analysis of the Adhesively Bonded Materials under Shear Loading

Abstract:

The dynamic stress intensity factor was studied about the Griffith crack between the visco-elastic layer and elastic body under shear loading. Adopting integral transform and singular integral equation method, the time response of dynamic stress intensity factor was calculated. Considering the influence of materials parameter, it was found that the dynamic stress intensity factor increases with crack length increasing, and it posses distinct size effect when the thickness of visco-elastic layer reaching the character size of materials.