Analyzing orthogonal cutting process using SPH method by kinematic cutting tool

In this paper, the orthogonal cutting process is studied using Smooth Particle Hydrodynamic (SPH) method by a kinematic rigid cutting tool and two work-piece material models: perfectly elastic-plastic (EPP) model and Johnson–Cook (JC) model. The kinematic tool means that if the cutting tool is assum...

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出版年:Comptes Rendus. Mécanique
主要な著者: Dehghani, Mohammad, Shafiei, Alireza, Abootorabi, Mohammad Mahdi
フォーマット: 論文
言語:英語
出版事項: Académie des sciences 2020-06-01
主題:
オンライン・アクセス:https://comptes-rendus.academie-sciences.fr/mecanique/articles/10.5802/crmeca.6/
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author Dehghani, Mohammad
Shafiei, Alireza
Abootorabi, Mohammad Mahdi
author_facet Dehghani, Mohammad
Shafiei, Alireza
Abootorabi, Mohammad Mahdi
author_sort Dehghani, Mohammad
collection DOAJ
container_title Comptes Rendus. Mécanique
description In this paper, the orthogonal cutting process is studied using Smooth Particle Hydrodynamic (SPH) method by a kinematic rigid cutting tool and two work-piece material models: perfectly elastic-plastic (EPP) model and Johnson–Cook (JC) model. The kinematic tool means that if the cutting tool is assumed a rigid body then the horizontal component speed of work-piece particles at cutting tool region are modified to the cutting speed. The chip shapes of orthogonal cutting process using SPH method with kinematic and kinetic tool models are compared with the experimental results. The chip obtained by the simulation with kinematic tool is more similar to the experimental results. Von-Mises stress distribution at different states of the orthogonal cutting process is investigated. The maximum stress occurs at the shear plane and causes the formation of chip teeth. Comparisons between chips of work-pieces with two material models are investigated including different rake angles of 5, 10 and $17.5^{\circ }$ with feed rates of 0.3 and $0.4~{\rm mm}/{\rm rev}$ and the cutting forces of the process are obtained. The cutting force of process with $17.5^{\circ }$ rake angle, $0.4~{\rm mm}/{\rm rev}$ feed rate and $800~{\rm m}/{\rm min}$ cutting speed is validated using experimental result.
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spelling doaj-art-2186b00231ef4fa69bc23c044e5c097b2025-08-19T22:00:45ZengAcadémie des sciencesComptes Rendus. Mécanique1873-72342020-06-01348214917410.5802/crmeca.610.5802/crmeca.6Analyzing orthogonal cutting process using SPH method by kinematic cutting toolDehghani, MohammadShafiei, Alirezahttps://orcid.org/0000-0003-3616-1634Abootorabi, Mohammad MahdiIn this paper, the orthogonal cutting process is studied using Smooth Particle Hydrodynamic (SPH) method by a kinematic rigid cutting tool and two work-piece material models: perfectly elastic-plastic (EPP) model and Johnson–Cook (JC) model. The kinematic tool means that if the cutting tool is assumed a rigid body then the horizontal component speed of work-piece particles at cutting tool region are modified to the cutting speed. The chip shapes of orthogonal cutting process using SPH method with kinematic and kinetic tool models are compared with the experimental results. The chip obtained by the simulation with kinematic tool is more similar to the experimental results. Von-Mises stress distribution at different states of the orthogonal cutting process is investigated. The maximum stress occurs at the shear plane and causes the formation of chip teeth. Comparisons between chips of work-pieces with two material models are investigated including different rake angles of 5, 10 and $17.5^{\circ }$ with feed rates of 0.3 and $0.4~{\rm mm}/{\rm rev}$ and the cutting forces of the process are obtained. The cutting force of process with $17.5^{\circ }$ rake angle, $0.4~{\rm mm}/{\rm rev}$ feed rate and $800~{\rm m}/{\rm min}$ cutting speed is validated using experimental result.https://comptes-rendus.academie-sciences.fr/mecanique/articles/10.5802/crmeca.6/Orthogonal cutting processKinematic and kinetic cutting toolJohnson–Cook material modelSPH method
spellingShingle Dehghani, Mohammad
Shafiei, Alireza
Abootorabi, Mohammad Mahdi
Analyzing orthogonal cutting process using SPH method by kinematic cutting tool
Orthogonal cutting process
Kinematic and kinetic cutting tool
Johnson–Cook material model
SPH method
title Analyzing orthogonal cutting process using SPH method by kinematic cutting tool
title_full Analyzing orthogonal cutting process using SPH method by kinematic cutting tool
title_fullStr Analyzing orthogonal cutting process using SPH method by kinematic cutting tool
title_full_unstemmed Analyzing orthogonal cutting process using SPH method by kinematic cutting tool
title_short Analyzing orthogonal cutting process using SPH method by kinematic cutting tool
title_sort analyzing orthogonal cutting process using sph method by kinematic cutting tool
topic Orthogonal cutting process
Kinematic and kinetic cutting tool
Johnson–Cook material model
SPH method
url https://comptes-rendus.academie-sciences.fr/mecanique/articles/10.5802/crmeca.6/
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AT shafieialireza analyzingorthogonalcuttingprocessusingsphmethodbykinematiccuttingtool
AT abootorabimohammadmahdi analyzingorthogonalcuttingprocessusingsphmethodbykinematiccuttingtool