The instability of nanobeams rested on two-parameter elastic foundations is studied through the Bernoulli–Euler beam theory and the stress-driven nonlocal elasticity model. The size-dependency is incorporated into the formulation by defining the strain at each point as an integral convolution in terms of the stresses in all the points and a kernel. The nonlocal elasticity problem in a bounded domain is well-posed and inconsistencies within the Eringen nonlocal theory are overcome. Excellent agreement is found with the results in the literature, and new insightful results are presented for the buckling loads of nanobeams rested on the Winkler and Pasternak foundations
The present study analyses the range of nonlocal parameters’ interaction on the buckling behaviour o...
Motivated by the need to have a fully nonlinear beam model usable at the nanoscale, in this paper, t...
Evaluation of size effects in functionally graded elastic nanobeams is carried out by making recours...
The instability of nanobeams rested on two-parameter elastic foundations is studied through the Bern...
Size-dependent buckling of compressed Bernoulli-Euler nano-beams is investigated by stress-driven no...
A plethora of current applicative problems of Nano-Engineering involve nanostructures interacting wi...
Nonlocal elastic models have attracted an increasing amount of attention in the past years, due to t...
Mode I fracture behavior of edge- and centrally-cracked nanobeams is analyzed by employing both stre...
The research at hand deals with the mechanical behavior of beam-like nanostructures. Nanobeams are a...
In the strain-driven model of nonlocal elasticity proposed by ERINGEN, the elastic strain is defined...
In this work, the size-dependent buckling behavior of functionally graded (FG) nanobeams is investig...
Size-dependent structural behavior of inflected Timoshenko elastic nano-beams is investigated by non...
Buckling and free vibration analyses of nonlocal axially functionally graded Euler nanobeams is the ...
Small-scale effects in nanobeams are effectively described by the Eringen model of nonlocal elastici...
Local elasticity is inherently size-independent. In contrast, non-local continuum mechanics allows u...
The present study analyses the range of nonlocal parameters’ interaction on the buckling behaviour o...
Motivated by the need to have a fully nonlinear beam model usable at the nanoscale, in this paper, t...
Evaluation of size effects in functionally graded elastic nanobeams is carried out by making recours...
The instability of nanobeams rested on two-parameter elastic foundations is studied through the Bern...
Size-dependent buckling of compressed Bernoulli-Euler nano-beams is investigated by stress-driven no...
A plethora of current applicative problems of Nano-Engineering involve nanostructures interacting wi...
Nonlocal elastic models have attracted an increasing amount of attention in the past years, due to t...
Mode I fracture behavior of edge- and centrally-cracked nanobeams is analyzed by employing both stre...
The research at hand deals with the mechanical behavior of beam-like nanostructures. Nanobeams are a...
In the strain-driven model of nonlocal elasticity proposed by ERINGEN, the elastic strain is defined...
In this work, the size-dependent buckling behavior of functionally graded (FG) nanobeams is investig...
Size-dependent structural behavior of inflected Timoshenko elastic nano-beams is investigated by non...
Buckling and free vibration analyses of nonlocal axially functionally graded Euler nanobeams is the ...
Small-scale effects in nanobeams are effectively described by the Eringen model of nonlocal elastici...
Local elasticity is inherently size-independent. In contrast, non-local continuum mechanics allows u...
The present study analyses the range of nonlocal parameters’ interaction on the buckling behaviour o...
Motivated by the need to have a fully nonlinear beam model usable at the nanoscale, in this paper, t...
Evaluation of size effects in functionally graded elastic nanobeams is carried out by making recours...