Jialai Wang | University of Alabama - Tuscaloosa (original) (raw)
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Papers by Jialai Wang
Journal of Cleaner Production
Construction and Building Materials
Cement and Concrete Composites
Process Safety and Environmental Protection
Construction and Building Materials
Journal of Cleaner Production
Case Studies in Construction Materials
Construction and Building Materials, 2022
Journal of Cleaner Production, 2022
Engineering Structures, 2022
Construction and Building Materials, 2019
Earth and Space 2018, 2018
The Journal of Adhesion, 2018
Composites Part A: Applied Science and Manufacturing, 2017
Engineering Structures, 2016
44th AIAA/ASME/ASCE/AHS/ASC Structures, Structural Dynamics, and Materials Conference, 2003
An engineering approach for evaluating the shear-mode (Mode-II) fracture toughness of bi-material... more An engineering approach for evaluating the shear-mode (Mode-II) fracture toughness of bi-material bonded interfaces is presented. A tapered beam on elastic foundation model (TBEF) is developed to analyze and design a linear Tapered End-Notched Flexure (TENF) specimen for fracture tests of bonded interfaces. The TBEF model is verified numerically by finite element analysis and experimentally by compliance calibration tests, which demonstrate that the present model can accurately predict the compliance and compliance ratechange of the specimen, and with proper design, an approximate constant rate of compliance change with respect to crack length can be achieved. The proposed TENF specimen can be used for Mode-II fracture toughness evaluations with reasonable confidence in the linearity of compliance crack-length relationship. Simplified design guideline for the TENF specimen is correspondingly developed. As an application, the fracture of wood-wood and wood-composite bonded interfaces under Mode-II loading is experimentally evaluated using the proposed TENF specimen, and the corresponding values of critical strain energy release rate are obtained. The modeling technique and testing method presented can be efficiently used for characterization of Mode-II fracture of bonded bimaterial interfaces.
Journal of Cleaner Production
Construction and Building Materials
Cement and Concrete Composites
Process Safety and Environmental Protection
Construction and Building Materials
Journal of Cleaner Production
Case Studies in Construction Materials
Construction and Building Materials, 2022
Journal of Cleaner Production, 2022
Engineering Structures, 2022
Construction and Building Materials, 2019
Earth and Space 2018, 2018
The Journal of Adhesion, 2018
Composites Part A: Applied Science and Manufacturing, 2017
Engineering Structures, 2016
44th AIAA/ASME/ASCE/AHS/ASC Structures, Structural Dynamics, and Materials Conference, 2003
An engineering approach for evaluating the shear-mode (Mode-II) fracture toughness of bi-material... more An engineering approach for evaluating the shear-mode (Mode-II) fracture toughness of bi-material bonded interfaces is presented. A tapered beam on elastic foundation model (TBEF) is developed to analyze and design a linear Tapered End-Notched Flexure (TENF) specimen for fracture tests of bonded interfaces. The TBEF model is verified numerically by finite element analysis and experimentally by compliance calibration tests, which demonstrate that the present model can accurately predict the compliance and compliance ratechange of the specimen, and with proper design, an approximate constant rate of compliance change with respect to crack length can be achieved. The proposed TENF specimen can be used for Mode-II fracture toughness evaluations with reasonable confidence in the linearity of compliance crack-length relationship. Simplified design guideline for the TENF specimen is correspondingly developed. As an application, the fracture of wood-wood and wood-composite bonded interfaces under Mode-II loading is experimentally evaluated using the proposed TENF specimen, and the corresponding values of critical strain energy release rate are obtained. The modeling technique and testing method presented can be efficiently used for characterization of Mode-II fracture of bonded bimaterial interfaces.