reversible linkers, the effect of these dynamical connections on bulk mechanical
response, the role of nanofiller particles in the mechanical enhancement of rubbers,
the microscopic pathways by which exchange of connectivity allows for the relaxation of stresses, [49] how realistic multiple network topologies may be generated
and how multiple networks break on a strand-resolved level. While the overall
picture is far from clear yet, we hope that this broad introduction will inspire further
modelling efforts in this exciting new chapter of polymer materials.
Acknowledgements Parts of this work were executed under the research programmes ‘Understanding the viscoelasticity of elastomer-based nanocomposites’ (VEC), the Stichting Nationale
Computerfaciliteiten (National Computer Facilities Foundation, NCF), the research programme on
Marginal Soft Matter (FOM12CSM01) and the ‘Projectruimte’ project 15PR3223 financed by the
Netherlands Organization for Scientific Research (NWO) and also under the research programme
on Computational Sciences for Energy Research (14CSER005), which is financed by the Netherlands Organization for Scientific Research (NWO) and Royal Dutch Shell.
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