In the framework of the Fibre Bundle Model we explore the effect of mixed-mode load transfer in two-dimensional arrays of nanopillars. The mixed-mode load redistribution scheme serves as an interpolation between limiting cases, namely global and local transfer. Two types of loading processes are employed i.e. quasi-static and sudden loading. By varying the weight parameter, we identify two behaviours: the GLS and LLS regime. As a regime indicator we use distribution of critical loads and function fitting probability of system breakdown
This paper modified the linear distributed load (LDL) model for cantilever nano-beams. A linear load...
We introduce a generalization of the history-independent local load sharing fibre bundle model that ...
The fiber bundle model describes a collection of elastic fibers under load. The fibers fail successi...
We apply the Fibre Bundle Model to study critical loads and catastrophic avalanches in arrays of axi...
A computational model for the damage analysis in the axially loaded nanopillar arrays was developed ...
We study the breakdown of the nanopillar arrays subjected to axial loading. The pillar-strength-thre...
We study mechanical-damage avalanches occurring in axially loaded nanopillars located in the nodes o...
The mechanical damage accumulation occurring in an array of axially loaded nanopillars is studied wi...
Abstract. The mechanical damage accumulation occurring in an array of axially loaded nanopillars is ...
We introduce a mixed-mode load sharing scheme in a fiber bundle model. This model reduces exactly to...
We investigate the global failure threshold of an interconnected set of elements, when a finite frac...
We introduce a continuous damage fiber bundle model and compare its behavior with that of dry fiber...
We study the effect of heterogeneous load sharing in the fiber bundle models of fracture. ...
We consider the problem of estimating the reliability of bundles constructed of several fibres, give...
Experimental evidence has illustrated that micropillar deformation is highly stochastic, as the stre...
This paper modified the linear distributed load (LDL) model for cantilever nano-beams. A linear load...
We introduce a generalization of the history-independent local load sharing fibre bundle model that ...
The fiber bundle model describes a collection of elastic fibers under load. The fibers fail successi...
We apply the Fibre Bundle Model to study critical loads and catastrophic avalanches in arrays of axi...
A computational model for the damage analysis in the axially loaded nanopillar arrays was developed ...
We study the breakdown of the nanopillar arrays subjected to axial loading. The pillar-strength-thre...
We study mechanical-damage avalanches occurring in axially loaded nanopillars located in the nodes o...
The mechanical damage accumulation occurring in an array of axially loaded nanopillars is studied wi...
Abstract. The mechanical damage accumulation occurring in an array of axially loaded nanopillars is ...
We introduce a mixed-mode load sharing scheme in a fiber bundle model. This model reduces exactly to...
We investigate the global failure threshold of an interconnected set of elements, when a finite frac...
We introduce a continuous damage fiber bundle model and compare its behavior with that of dry fiber...
We study the effect of heterogeneous load sharing in the fiber bundle models of fracture. ...
We consider the problem of estimating the reliability of bundles constructed of several fibres, give...
Experimental evidence has illustrated that micropillar deformation is highly stochastic, as the stre...
This paper modified the linear distributed load (LDL) model for cantilever nano-beams. A linear load...
We introduce a generalization of the history-independent local load sharing fibre bundle model that ...
The fiber bundle model describes a collection of elastic fibers under load. The fibers fail successi...