Finite Element Analysis of Tool Stresses, Temperature and Prediction of Cutting Forces in Turning Process

Martin Necpal; Peter Pokorný; Marcel Kuruc

doi:10.4028/www.scientific.net/SSP.261.354

Paper Titles

Study on Spindle Vibration and Surface Finish in Turning of Al 7075
p.321

A New Strategy in Face Milling - Inverse Cutting Technology
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A Study of Explicit Numerical Simulations in Orthogonal Metal Cutting
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FEA-Based Comparative Investigation on High Speed Machining of Aluminum Alloys AA6061-T6 and AA7075-T651
p.347

Finite Element Analysis of Tool Stresses, Temperature and Prediction of Cutting Forces in Turning Process
p.354

Numerical Investigation of Mechanical Induced Stress during Precision End Milling Hardened Tool Steel
p.362

Deformation and FEM Analysis of the Chip Root in Face Milling Process
p.370

Development of ANFIS Model for Flow Forming of Solution Annealed H30 Aluminium Tubes
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A Heuristic Approach to Design Discrete Fractional Order Integrators without Using s-to-z Transform
p.386

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Finite Element Analysis of Tool Stresses, Temperature and Prediction of Cutting Forces in Turning Process

Abstract:

The paper presents the simulation model of turning the process of C45 non-alloy steel with a tool made of carbide insert. A 3D final element model used a lagrangian incremental type and re-meshing chip separation criterion was experimentally verified by measure cutting forces using piezoelectric dynamometer. In addition, stresses and temperature in the tooltip were predicted and examine. This work could investigate failure the tooltip, which would be great interest to predict wear and damage of cutting tool.

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Periodical:

Solid State Phenomena (Volume 261)

Pages:

354-361

DOI:

https://doi.org/10.4028/www.scientific.net/SSP.261.354

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Online since:

August 2017

Authors:

Martin Necpal*, Peter Pokorný, Marcel Kuruc

Keywords:

3D Finite Element Modeling, Cutting Force, Cutting Tool, Turning Process

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