ABSTRACT

In order to develop innovative products, to reduce development costs and the number of prototypes and to accelerate development processes, numerical simulations become more and more attractive. As such, numerical simulations are instrumental in understanding complicated material properties like chemical ageing, crack propagation or the strain- and temperature-induced crystallisation of rubber. Therefore, experimentally validated and physically meaningful constitutive models are indispensable. Elastomers are used for products like tyres, engine and suspension mounts or seals, to name a few. The interest in modelling the quasi-static stress-strain behaviour was dominant in the past decades, but nowadays the interests also include influences of environmental conditions. The latest developments on the material behaviour of elastomers are collected in the present volume.

Constitutive Models for Rubber X is a comprehensive compilation of nearly all oral and poster contributions to the European Conference on Constitutive Models for Rubber (Munich, 28-31 August 2017). The 95 highly topical contributions reflect the state of-the-art in material modelling and testing of elastomers. They cover the fields of material testing and processing, filler reinforcement, electromagnetic sensitive elastomers, dynamic properties, constitutive modelling, micromechanics, finite element implementation, stress softening, chemical ageing, fatigue and durability. In the area of rubbery materials and structures, applied research will play an important role also in the coming decades.

Constitutive Models for Rubber X is of interest to developers and researchers involved in the rubber processing and CAE software industries, as well as for academics in nearly all disciplines of engineering and material sciences.

part 2|64 pages

Ageing

part 3|70 pages

Constitutive models and their implementation in FEM

part 4|118 pages

Experimental characterisation

chapter 31|5 pages

A novel algorithm

Tool to quantifying rubber blends from infrared spectrum

chapter 33|5 pages

Crack growth under long-term static loads

Characterizing creep crack growth behavior in hydrogenated nitrile

part 5|92 pages

Fracture, fatigue and lifetime prediction of rubber

part 6|18 pages

Filler reinforcement

part 7|9 pages

Stress softening

chapter 62|7 pages

A physical interpretation for network alterations of filled elastomers under deformation

A focus on the morphology of filler–chain interactions

part 10|36 pages

Industrial applications

part 12|68 pages

Modelling of viscoelastic and hyperelastic behaviour

part 13|65 pages

Micro-structural theories of rubber