Transient multi-scale analysis with micro-inertia effects using direct FE\(^2\) method

DOI10.1007/s00466-021-02012-6zbMath1467.74090OpenAlexW3155187831WikidataQ113326717 ScholiaQ113326717MaRDI QIDQ2037491

Jie Zhi, Karthikayen Raju, Vincent Beng Chye Tan, Tong-Earn Tay

Publication date: 8 July 2021

Published in: Computational Mechanics (Search for Journal in Brave)

Full work available at URL: https://doi.org/10.1007/s00466-021-02012-6

zbMATH Keywords

wave propagationmultiscale methodcomposite beamlow-velocity impactacoustic metamaterialHill-Mandel principle

Mathematics Subject Classification ID

Finite element methods applied to problems in solid mechanics (74S05) Micromechanics of solids (74M25) Composite and mixture properties (74E30) Impact in solid mechanics (74M20)

Related Items (9)

Direct \(\mathrm{FE}^2\) for concurrent multilevel modeling of heterogeneous thin plate structures ⋮ Direct \(\mathrm{FE}^2\) modeling of heterogeneous materials with a micromorphic computational homogenization framework ⋮ A hybrid direct \(\mathrm{FE}^2\) method for modeling of multiscale materials and structures with strain localization ⋮ Physically informed deep homogenization neural network for unidirectional multiphase/multi-inclusion thermoconductive composites ⋮ An efficient monolithic multiscale numerical manifold model for fully coupled nonlinear saturated porous media ⋮ A direct \(\mathrm{FE}^2\) method for concurrent multilevel modeling of piezoelectric materials and structures ⋮ Multiscale modeling of laminated thin-shell structures with direct \(\mathrm{FE}^2\) ⋮ Multiscale computational homogenisation of shear-flexible beam elements: a direct \(\mathrm{FE}^2\) approach ⋮ Hydro-mechanical multiscale numerical manifold model of the three-dimensional heterogeneous poro-elasticity

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