Keywordsnanoindentaion; elastic deformation; finite element method; numerical analysis; fracture toughness; atomic force microscopy; pillar splitting; lithium-ion batteries; nanoindentation; focused ion beam; residual stress; indentation fracture; fracture toughness; extended finite element analysis; incremental forming; indentation; FEM; MUBT; plastic deformation; hardening effect; intermetallic composite; grain refinement; hardness; high-pressure torsion; nanocomposite; nanoindentation; plasticity; high strain rate; nanoindentation; aluminum alloy; dynamics; incremental forming; indentation; Digital Image Correlation; Finite Elements Method; experimental methodology; metallic glass; nanoindentation; applied stress; hardness; pop-in; creep; Digital Image Correlation; instrumented indentation; numerical validation; Image Decomposition; strain analysis; contact; indentation; damage; 3D digital image correlation; micro defects; NDT; indentation; microfabrication; Staphylococcus; Rhodococcus; asphalt concrete; hydrated lime; nanoindentation; Young’s modulus; hardness; cement paste; nanoindentation; PCM; microcapsules; tensile strength; porosity; nano-indentation; nano-epsilon dot method; strain rate; mechanical properties; viscoelastic models; soft materials; gelatin; glutaraldehyde; nanoindentation; contact mechanics; deformation; silicon; pillars; PC3 cells; indentation; plastic anisotropy; parameter identification; metallic materials
