6533b86ffe1ef96bd12cdcf7
RESEARCH PRODUCT
Experimental and numerical assessment of subsurface plastic deformation induced by OFHC copper machining
Gérard PoulachonGuillaume FromentinJosé OuteiroSébastien CampocassoLamice DenguirLamice DenguirVincent Vignalsubject
Pulsed laser[ SPI.MECA.GEME ] Engineering Sciences [physics]/Mechanics [physics.med-ph]/Mechanical engineering [physics.class-ph]0209 industrial biotechnologyDigital image correlationMaterials sciencechemistry.chemical_element02 engineering and technologyIndustrial and Manufacturing EngineeringDisplacement (vector)020901 industrial engineering & automationMécanique: Génie mécanique [Sciences de l'ingénieur]Finite Element Method (FEM)0203 mechanical engineeringMachiningComposite materialMechanical EngineeringMetallurgyNumerical assessmentMachiningCopperDeformation[SPI.MECA.GEME]Engineering Sciences [physics]/Mechanics [physics.med-ph]/Mechanical engineering [physics.class-ph]020303 mechanical engineering & transportsMachined surfacechemistryDeformation (engineering)description
Strain distributions in the machined surface and subsurface of OFHC copper workpieces were determined experimentally and through numerical simulations. An experimental setup, comprising a double frame camera and a pulsed laser, was developed to measure the displacement fields using the digital image correlation (DIC) technique; strain distributions were then calculated. A numerical orthogonal cutting model was also developed and applied in order to predict such distributions. Comparison between simulated and measured results enabled an understanding of the fundamental mechanisms of plastic deformation of the machined surface of OFHC copper.; International audience; Strain distributions in the machined surface and subsurface of OFHC copper workpieces were determined experimentally and through numerical simulations. An experimental setup, comprising a double frame camera and a pulsed laser, was developed to measure the displacement fields using the digital image correlation (DIC) technique; strain distributions were then calculated. A numerical orthogonal cutting model was also developed and applied in order to predict such distributions. Comparison between simulated and measured results enabled an understanding of the fundamental mechanisms of plastic deformation of the machined surface of OFHC copper.
| year | journal | country | edition | language |
|---|---|---|---|---|
| 2015-01-01 |