
AbstractIn this work, starting from an approach previously proposed by the Authors, we put forward an extension to the large deformation regime of the dimensionally-reduced formulation for peridynamic thin plates, including both hyperelasticity and fracture. In particular, the model, validated against numerical simulations, addresses the problem of the peeling in nonlocal thin films, which when attached to a soft substrate highlights how nonlocality of the peeled-off layer might greatly influence the whole structural response and induce some unforeseen mechanical behaviours that could be useful for engineering applications. Through a key benchmark example, we in fact demonstrate that de-localization of damage and less destructive failure modes take place, these effects suggesting the possibility of ad hoc conceiving specific networks of nonlocal interactions between material particles, corresponding to lattice-equivalent structure of the nonlocal model treated, of interest in designing new material systems and interfaces with enhanced toughness and adhesive properties.
Thin films, Research, Micromechanics of solids, delamination, Nonlinear mechanics, Peridynamics, Brittle fracture, fracture, Delamination, peridynamic thin plate model, Solid mechanics, hyperelasticity, Plates, Peeling, large deformation, Delamination; Nonlinear mechanics; Peeling; Peridynamics
Thin films, Research, Micromechanics of solids, delamination, Nonlinear mechanics, Peridynamics, Brittle fracture, fracture, Delamination, peridynamic thin plate model, Solid mechanics, hyperelasticity, Plates, Peeling, large deformation, Delamination; Nonlinear mechanics; Peeling; Peridynamics
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