|dc.description.abstract||This paper investigates the dynamic behavior of a geometrically nonlinear nanobeam resting on the fractional visco-Pasternak foundation and subjected to dynamic axial and transverse loads. The fractional-order governing equation of the system is derived and then discretized by using the single-mode Galerkin discretization. Corresponding forced Mathieu-Duffing equation is solved by using the perturbation multiple time scales method for the weak nonlinearity and by the semi-numerical incremental harmonic balance method for the strongly nonlinear case. A comparison of the results from two methods is performed in the validation study for the weakly nonlinear case and a fine agreement is achieved. A parametric study is performed and the advantages and deficiencies of each method are discussed for order two and three superharmonic resonance conditions. The results demonstrate a significant influence of the fractional-order damping of the visco-Pasternak foundation as well as the nonlocal parameter and external excitation load on the frequency response of the system. The proposed methodology can be used in pre-design procedures of novel energy harvesting and sensor devices at small scales exhibiting nonlinear dynamic behavior.||en_US|
|dc.relation.ispartof||Proceedings of the Institution of Mechanical Engineers, Part C: Journal of Mechanical Engineering Science||en_US|
|dc.subject||fractional damping | incremental harmonic balance | multiple scales method | Nanobeams | nonlinear vibration | nonlocal elasticity||en_US|
|dc.title||Nonlinear superharmonic resonance analysis of a nonlocal beam on a fractional visco-Pasternak foundation||en_US|
|dc.contributor.affiliation||Mathematical Institute of the Serbian Academy of Sciences and Arts||en_US|
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