ABSTRACT

Due to their unique properties, rubber materials are found in multiple engineering applications such as tires, engine mounts, shock absorbers, flexible joints, seals, etc. Nevertheless, the complex nature of the behavior of such material makes it difficult to accurately model and predict the performance of these units.The challenge to correctly rep

part |2 pages

Continuum mechanical models and numerical implementation

chapter |8 pages

A Multiscale continuum damage model for cavity growth in rubberlike materials

Hüsnü Dal, Barış Cansız & Christian Miehe

part |2 pages

Hyperelasticity

part |2 pages

Micro-mechanical approaches

part |2 pages

Fracture, fatigue and lifetime prediction

part |2 pages

Mullins effect

chapter |6 pages

Modeling the Mullins effect in swollen rubber

A.B. Chai, A. Andriyana & S.Y. Ch’ng E. Verron

part |2 pages

Strain induced crystallization

chapter |6 pages

Strain-induced crystallization in natural rubber: Kinetics and strain relaxation

Pierre-Antoine Albouy Arnaud Vieyres, Olivier Sanseau & Paul Sotta

part |2 pages

Thermal effects

part |2 pages

Reinforcement and vulcanization

part |2 pages

Design and applications

part |2 pages

Magneto-sensitive, ionic and electro-active elastomers

chapter |6 pages

Realistic fatigue life prediction for magnetorheological elastomers

Jennifer McIntyre & Thomas Alshuth Y.F. Zhou, Mark Johnson & Stephen Jerrams