3D Simulation and Analysis for Face Precision Milling of Aerospace Aluminum Alloy

Ai Qin Lin; Min Li Zheng; Yan Gu

doi:10.4028/www.scientific.net/AMR.188.657

Paper Titles

Study on the Machinability Characteristics of Superalloy K424 during High Speed Turning
p.636

Analysis and Research of the Vibration of the High-Speed Cutting Process
p.642

An Experimental Study on the Impact on Vari-Speed Milling to the Capacity Machine Tool
p.648

Process Information Parameterization of Camshaft Part for Virtual High-Speed Grinding
p.652

3D Simulation and Analysis for Face Precision Milling of Aerospace Aluminum Alloy
p.657

The Application of Fuzzy Comprehensive Evaluation to Cutting Sequences' Optimization of Multi-Feature Part
p.662

Research on Comprehensive Quality Evaluation System for Computer Supported Cooperative Design of Mould
p.667

Design and Simulation of Ground Test Platform for Microsatellite Docking Mechanism
p.671

Application of Continuous Wavelet Features and Multi-Class Sphere SVM to Chatter Prediction
p.675

HomeAdvanced Materials ResearchAdvanced Materials Research Vol. 1883D Simulation and Analysis for Face Precision...

3D Simulation and Analysis for Face Precision Milling of Aerospace Aluminum Alloy

Abstract:

The present work aims at simulating three-dimensional milling operation of aluminum allo7451.Building a nose ring radius and edge radius tool model. Using finite element analysis software , conducted a three-dimensional simulation of milling process. Milling force, milling temperature, stress distribution and chip shape of milling process have been got. A milling force experiment was carried out under the same cutting conditions as the simulation, and a good agreement between the simulation result and the experimental result was achieved, and chip shape matched the practice well. The simulation shows that the three-dimensional finite element milling cutter model and the workpiece model can be used to correctly simulate precision milling process, optimizing the cutting parameters by analyzing variation of the cutting force, the temperature and equivalent stress.

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Periodical:

Advanced Materials Research (Volume 188)

Pages:

657-661

DOI:

https://doi.org/10.4028/www.scientific.net/AMR.188.657

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Online since:

March 2011

Authors:

Ai Qin Lin, Min Li Zheng, Yan Gu

Keywords:

3D Simulation, Aluminium Alloy, Chip Shape, Cutting Force

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