Constitutive Modelling and Failure Prediction for Silicone Adhesives in Façade Design
Drass, Michael
Constitutive Modelling and Failure Prediction for Silicone Adhesives in Façade Design by Michael Drass - First edition 2020 - 1 recurso en línea (XX, 291 páginas) ilustraciones - Mechanik Werkstoffe und Konstruktion im Bauwesen 55 2512-3238 Engineering (Springer-11647) .
This book provides readers with an elementary understanding of the material behavior of structural silicones in façades. Based on extensive experimental investigations on a transparent structural silicone adhesive (TSSA), the material behavior, failure, and microscopic effects such as stress whitening, cavitation failure, and the Mullins effect are analyzed. In turn, novel hyperelastic material models are developed to account for nonlinear material behavior under arbitrary deformations. The development of a volumetric hyperelastic model makes it possible for the first time to approximate the structural behavior of TSSA under constrained tensile load and cavitation. The material models discussed here were implemented in a finite element code for validation, and their quality was confirmed by three-dimensional numerical simulations, in which an additional stretch-based failure criterion was evaluated for failure prediction. The numerical studies are in good agreement with the experimental results.
9783658292553
10.1007/978-3-658-29255-3 doi
Juntas (Ingeniería)
Adhesivos
TA660.J64 / 2020 EB
Constitutive Modelling and Failure Prediction for Silicone Adhesives in Façade Design by Michael Drass - First edition 2020 - 1 recurso en línea (XX, 291 páginas) ilustraciones - Mechanik Werkstoffe und Konstruktion im Bauwesen 55 2512-3238 Engineering (Springer-11647) .
This book provides readers with an elementary understanding of the material behavior of structural silicones in façades. Based on extensive experimental investigations on a transparent structural silicone adhesive (TSSA), the material behavior, failure, and microscopic effects such as stress whitening, cavitation failure, and the Mullins effect are analyzed. In turn, novel hyperelastic material models are developed to account for nonlinear material behavior under arbitrary deformations. The development of a volumetric hyperelastic model makes it possible for the first time to approximate the structural behavior of TSSA under constrained tensile load and cavitation. The material models discussed here were implemented in a finite element code for validation, and their quality was confirmed by three-dimensional numerical simulations, in which an additional stretch-based failure criterion was evaluated for failure prediction. The numerical studies are in good agreement with the experimental results.
9783658292553
10.1007/978-3-658-29255-3 doi
Juntas (Ingeniería)
Adhesivos
TA660.J64 / 2020 EB