Analysis and Prediction of Micromilling Stability with Variable Tool Geometry

Micromilling can fabricate miniaturized components using micro-end mill at high rotational speeds. The analysis of machining stability in micromilling plays an important role in characterizing the cutting process, estimating the tool life, and optimizing the process. A numerical analysis and experim...

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Main Authors: Ziyang Cao, Hua Li, Zhen Yin, Wei Liu
Format: Article
Language:English
Published: SAGE Publishing 2014-11-01
Series:Advances in Mechanical Engineering
Online Access:https://doi.org/10.1155/2014/870782
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spelling doaj-5a18a7eb6e564903b1856d0e129c41e52020-11-25T02:48:48ZengSAGE PublishingAdvances in Mechanical Engineering1687-81322014-11-01610.1155/2014/87078210.1155_2014/870782Analysis and Prediction of Micromilling Stability with Variable Tool GeometryZiyang CaoHua LiZhen YinWei LiuMicromilling can fabricate miniaturized components using micro-end mill at high rotational speeds. The analysis of machining stability in micromilling plays an important role in characterizing the cutting process, estimating the tool life, and optimizing the process. A numerical analysis and experimental method are presented to investigate the chatter stability in micro-end milling process with variable milling tool geometry. The schematic model of micromilling process is constructed and the calculation formula to predict cutting force and displacements is derived. This is followed by a detailed numerical analysis on micromilling forces between helical ball and square end mills through time domain and frequency domain method and the results are compared. Furthermore, a detailed time domain simulation for micro end milling with straight teeth and helical teeth end mill is conducted based on the machine-tool system frequency response function obtained through modal experiment. The forces and displacements are predicted and the simulation result between variable cutter geometry is deeply compared. The simulation results have important significance for the actual milling process.https://doi.org/10.1155/2014/870782
collection DOAJ
language English
format Article
sources DOAJ
author Ziyang Cao
Hua Li
Zhen Yin
Wei Liu
spellingShingle Ziyang Cao
Hua Li
Zhen Yin
Wei Liu
Analysis and Prediction of Micromilling Stability with Variable Tool Geometry
Advances in Mechanical Engineering
author_facet Ziyang Cao
Hua Li
Zhen Yin
Wei Liu
author_sort Ziyang Cao
title Analysis and Prediction of Micromilling Stability with Variable Tool Geometry
title_short Analysis and Prediction of Micromilling Stability with Variable Tool Geometry
title_full Analysis and Prediction of Micromilling Stability with Variable Tool Geometry
title_fullStr Analysis and Prediction of Micromilling Stability with Variable Tool Geometry
title_full_unstemmed Analysis and Prediction of Micromilling Stability with Variable Tool Geometry
title_sort analysis and prediction of micromilling stability with variable tool geometry
publisher SAGE Publishing
series Advances in Mechanical Engineering
issn 1687-8132
publishDate 2014-11-01
description Micromilling can fabricate miniaturized components using micro-end mill at high rotational speeds. The analysis of machining stability in micromilling plays an important role in characterizing the cutting process, estimating the tool life, and optimizing the process. A numerical analysis and experimental method are presented to investigate the chatter stability in micro-end milling process with variable milling tool geometry. The schematic model of micromilling process is constructed and the calculation formula to predict cutting force and displacements is derived. This is followed by a detailed numerical analysis on micromilling forces between helical ball and square end mills through time domain and frequency domain method and the results are compared. Furthermore, a detailed time domain simulation for micro end milling with straight teeth and helical teeth end mill is conducted based on the machine-tool system frequency response function obtained through modal experiment. The forces and displacements are predicted and the simulation result between variable cutter geometry is deeply compared. The simulation results have important significance for the actual milling process.
url https://doi.org/10.1155/2014/870782
work_keys_str_mv AT ziyangcao analysisandpredictionofmicromillingstabilitywithvariabletoolgeometry
AT huali analysisandpredictionofmicromillingstabilitywithvariabletoolgeometry
AT zhenyin analysisandpredictionofmicromillingstabilitywithvariabletoolgeometry
AT weiliu analysisandpredictionofmicromillingstabilitywithvariabletoolgeometry
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