0000000000210561

AUTHOR

Guillaume Fromentin

showing 7 related works from this author

Multi-physical analysis of the electrochemical behaviour of OFHC copper surfaces obtained by orthogonal cutting

2020

International audience; As mechanical, physical, and microstructural properties of metals can be significantly affected by the machining process, electrochemical properties and corrosion resistance are consequently altered. Manufacturers should control the impact of cutting conditions on surface integrity, as it will affect the component’s functional performance and life. This study addresses the case of orthogonal cutting of oxygen-free high conductivity (OFHC) copper. A set of experiments was performed and a statistical analysis was conducted to reveal the relationship between the cutting conditions and the surface integrity in terms of residualstresses, microstructure, plastic deformatio…

Machining processMaterials science020209 energyGeneral Chemical EngineeringMetallurgychemistry.chemical_element02 engineering and technologyGeneral Chemistry021001 nanoscience & nanotechnologyElectrochemistryCopperCorrosion[SPI.MECA.GEME]Engineering Sciences [physics]/Mechanics [physics.med-ph]/Mechanical engineering [physics.class-ph]Mécanique: Génie mécanique [Sciences de l'ingénieur]chemistryGeneral chemistry0202 electrical engineering electronic engineering information engineeringGeneral Materials Science0210 nano-technologySurface integrity
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Friction Model for Tool/Work Material Contact Applied to Surface Integrity Prediction in Orthogonal Cutting Simulation

2017

Abstract Tribological behavior at both tool/chip and tool/work material interfaces should be highly considered while simulating the machining process. In fact, it is no longer accurate to suppose one independent constant friction coefficient at the tool/chip interface, since in reality it depends on the applied contact conditions, including the sliding velocity and pressure. The contact conditions at both above mentioned interfaces may affect the thermal and mechanical phenomena and consequently the surface integrity predictions. In this article, the influence of contact conditions (sliding velocity) on the tribological behavior of uncoated tungsten carbide tool against OFHC copper work mat…

0209 industrial biotechnologyWork (thermodynamics)Matériaux [Sciences de l'ingénieur]Materials scienceMechanical Phenomenachemistry.chemical_element02 engineering and technologytribology testschemistry.chemical_compound020901 industrial engineering & automation0203 mechanical engineeringcarbide toolTungsten carbideThermalComposite materialGeneral Environmental Sciencecutting simulationfriction modelingMécanique [Sciences de l'ingénieur]MetallurgyOFHC copperTribologyChipCopper020303 mechanical engineering & transportschemistryGeneral Earth and Planetary SciencesSurface integrityProcedia CIRP
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A physical-based constitutive model for surface integrity prediction in machining of OFHC copper

2017

International audience; Due to the rising interest in predicting machined surface integrity and sustainability, various models for metal cutting simulation have been developed. However, their accuracy depends deeply on the physical description of the machining process. This study aims to develop an orthogonal cutting model for surface integrity prediction, which includes a physical-based constitutive model of Oxygen Free High Conductivity (OFHC) copper. This constitutive model incorporates the effects of the state of stress and microstructure on the work material behavior, as well as a dislocation density-based model for surface integrity prediction. The coefficients of the constitutive mod…

[ SPI.MECA.GEME ] Engineering Sciences [physics]/Mechanics [physics.med-ph]/Mechanical engineering [physics.class-ph]0209 industrial biotechnologyWork (thermodynamics)Materials scienceMatériaux [Sciences de l'ingénieur][ SPI.MECA ] Engineering Sciences [physics]/Mechanics [physics.med-ph]Constitutive equation[ SPI.MAT ] Engineering Sciences [physics]/Materials02 engineering and technologyIndustrial and Manufacturing Engineering[SPI.MAT]Engineering Sciences [physics]/MaterialsStress (mechanics)modelling020901 industrial engineering & automationMécanique: Génie mécanique [Sciences de l'ingénieur]MachiningResidual stress[SPI.MECA.MEMA]Engineering Sciences [physics]/Mechanics [physics.med-ph]/Mechanics of materials [physics.class-ph]Mécanique: Mécanique des matériaux [Sciences de l'ingénieur]business.industryMécanique [Sciences de l'ingénieur]OHFC copperMetals and AlloysStructural engineeringConstitutive model[SPI.MECA]Engineering Sciences [physics]/Mechanics [physics.med-ph]021001 nanoscience & nanotechnologysurface integrityFinite element methodComputer Science Applications[SPI.MECA.GEME]Engineering Sciences [physics]/Mechanics [physics.med-ph]/Mechanical engineering [physics.class-ph]Modeling and Simulation[ SPI.MECA.MEMA ] Engineering Sciences [physics]/Mechanics [physics.med-ph]/Mechanics of materials [physics.class-ph]Ceramics and Compositesorthogonal cuttingDislocation0210 nano-technologybusinessSurface integrity
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Influence of cutting process mechanics on surface integrity and electrochemical behavior of OFHC copper

2014

The authors gratefully acknowledge the support received from IC ARTS and CEA Valduc; International audience; Superfinishing machining has a particular impact on cutting mechanics, surface integrity and local electrochemical behavior. In fact, material removal during this process induces geometrical, mechanical and micro-structural modifications in the machined surface and sub-surface. However, a conventional 3D cutting process is still complex to study in terms of analytical/numerical modeling and experimental process monitoring. So, researchers are wondering if a less intricate configuration such as orthogonal cutting would be able to provide information about surface integrity as close as…

[ SPI.MECA.GEME ] Engineering Sciences [physics]/Mechanics [physics.med-ph]/Mechanical engineering [physics.class-ph]0209 industrial biotechnologyWork (thermodynamics)Materials scienceMatériaux [Sciences de l'ingénieur][ SPI.MECA ] Engineering Sciences [physics]/Mechanics [physics.med-ph]OFHC copper.[ SPI.MAT ] Engineering Sciences [physics]/MaterialsCorrosion resistance[PHYS.MECA.GEME]Physics [physics]/Mechanics [physics]/Mechanical engineering [physics.class-ph]02 engineering and technology[SPI.MECA.MSMECA]Engineering Sciences [physics]/Mechanics [physics.med-ph]/Materials and structures in mechanics [physics.class-ph]SuperfinishingEdge (geometry)Corrosion[SPI.MAT]Engineering Sciences [physics]/Materials[PHYS.MECA.MEMA]Physics [physics]/Mechanics [physics]/Mechanics of materials [physics.class-ph]020901 industrial engineering & automationMécanique: Génie mécanique [Sciences de l'ingénieur]MachiningMatériaux [Chimie][SPI.MECA.MEMA]Engineering Sciences [physics]/Mechanics [physics.med-ph]/Mechanics of materials [physics.class-ph][ PHYS.MECA.MSMECA ] Physics [physics]/Mechanics [physics]/Materials and structures in mechanics [physics.class-ph]Mécanique: Mécanique des matériaux [Sciences de l'ingénieur]General Environmental ScienceSurface IntegrityMécanique [Sciences de l'ingénieur]Process (computing)Mécanique: Matériaux et structures en mécanique [Sciences de l'ingénieur]MechanicsOFHC copper[CHIM.MATE]Chemical Sciences/Material chemistry[SPI.MECA]Engineering Sciences [physics]/Mechanics [physics.med-ph][PHYS.MECA.MSMECA]Physics [physics]/Mechanics [physics]/Materials and structures in mechanics [physics.class-ph]021001 nanoscience & nanotechnologyChip[ SPI.MECA.MSMECA ] Engineering Sciences [physics]/Mechanics [physics.med-ph]/Materials and structures in mechanics [physics.class-ph][SPI.MECA.GEME]Engineering Sciences [physics]/Mechanics [physics.med-ph]/Mechanical engineering [physics.class-ph][ CHIM.MATE ] Chemical Sciences/Material chemistry[ SPI.MECA.MEMA ] Engineering Sciences [physics]/Mechanics [physics.med-ph]/Mechanics of materials [physics.class-ph][ PHYS.MECA.MEMA ] Physics [physics]/Mechanics [physics]/Mechanics of materials [physics.class-ph][ PHYS.MECA.GEME ] Physics [physics]/Mechanics [physics]/Mechanical engineering [physics.class-ph]General Earth and Planetary Sciences0210 nano-technologySuperfinishingSurface integrity
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On the optimization of the cutting conditions for an improved corrosion resistance of OFHC copper

2018

International audience; Machining has a particular impact on the surface integrity and on corrosion resistance of components. In fact, material removal induces geometrical, mechanical and micro-structural modifications in the machined surface and sub-surface that alter the electrochemical behavior of the material, and so the aging process. In this study, oxygen free high conductivity copper (OFHC) has machined under orthogonal cutting conditions using uncoated cemented carbide tools. Then, the corrosion resistance in 0.1 M NaCl salt fog atmosphere of the machined samples is analyzed. Finally, the optimal cutting conditions, including the tool geometry, for an improved corrosion resistance a…

0209 industrial biotechnologyMaterials scienceMatériaux [Sciences de l'ingénieur]chemistry.chemical_element02 engineering and technology[SPI.MAT] Engineering Sciences [physics]/MaterialsElectrochemistryOxygenCorrosion[SPI.MAT]Engineering Sciences [physics]/Materials020901 industrial engineering & automationMécanique: Génie mécanique [Sciences de l'ingénieur]Machining[SPI.MECA.GEME] Engineering Sciences [physics]/Mechanics [physics.med-ph]/Mechanical engineering [physics.class-ph]General Environmental Sciencecorrosion resistanceMetallurgyOFHC copper021001 nanoscience & nanotechnologysurface integrityCopper[SPI.MECA.GEME]Engineering Sciences [physics]/Mechanics [physics.med-ph]/Mechanical engineering [physics.class-ph]Machined surfacechemistryCemented carbideGeneral Earth and Planetary Sciencesorthogonal cutting0210 nano-technologySurface integritymachining
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Experimental and numerical assessment of subsurface plastic deformation induced by OFHC copper machining

2015

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 t…

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)
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Orthogonal cutting simulation of OFHC copper using a new constitutive model considering the state of stress and the microstructure effects

2016

International audience; This work aims to develop an orthogonal cutting model for surface integrity prediction, which incorporates a new constitutive model of Oxygen Free High Conductivity (OFHC) copper. It accounts for the effects of the state of stress on the flow stress evolution up to fracture. Moreover, since surface integrity parameters are sensitive to the microstructure of the work material, this constitutive model highlights also the recrystallization effects on the flow stress. Orthogonal cutting model is validated using experimental designed cutting tests. More accurate predictions were obtained using this new constitutive model comparing to the classical Johnson-Cook model.

[ SPI.MECA.GEME ] Engineering Sciences [physics]/Mechanics [physics.med-ph]/Mechanical engineering [physics.class-ph]0209 industrial biotechnologyWork (thermodynamics)Recrystallization (geology)Materials science[ SPI.MECA ] Engineering Sciences [physics]/Mechanics [physics.med-ph]Constitutive equation02 engineering and technologyFlow stressModellingStress (mechanics)Mécanique: Génie mécanique [Sciences de l'ingénieur]020901 industrial engineering & automation0203 mechanical engineering[SPI.MECA.MEMA]Engineering Sciences [physics]/Mechanics [physics.med-ph]/Mechanics of materials [physics.class-ph]Mécanique: Mécanique des matériaux [Sciences de l'ingénieur]General Environmental ScienceFinite element method (FEM)Mécanique [Sciences de l'ingénieur]business.industryMechanicsStructural engineeringConstitutive modelOFHC copper[SPI.MECA]Engineering Sciences [physics]/Mechanics [physics.med-ph]Microstructure[SPI.MECA.GEME]Engineering Sciences [physics]/Mechanics [physics.med-ph]/Mechanical engineering [physics.class-ph]020303 mechanical engineering & transportsCutting[ SPI.MECA.MEMA ] Engineering Sciences [physics]/Mechanics [physics.med-ph]/Mechanics of materials [physics.class-ph]Fracture (geology)General Earth and Planetary SciencesbusinessSurface integrity
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