A study on the effect of double-tip inclined angle on micro-scratching process using smooth particle hydrodynamic method

Multi-tip micro/nano-scratching technology has been widely used in precision manufacturing. In this study, the smooth particle hydrodynamic based on micro-scratching model is proposed to study the effect of double-tip inclined angles on such a scratching process. A series of simulations were conduct...

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Main Authors: Yuexi Zhong, Hongwei Zhao, Zhichao Ma, Yue Shi, Haishuang Fu
Format: Article
Language:English
Published: SAGE Publishing 2017-08-01
Series:Advances in Mechanical Engineering
Online Access:https://doi.org/10.1177/1687814017720877
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spelling doaj-491aabc01b9743b68fa162494240b2952020-11-25T03:43:37ZengSAGE PublishingAdvances in Mechanical Engineering1687-81402017-08-01910.1177/1687814017720877A study on the effect of double-tip inclined angle on micro-scratching process using smooth particle hydrodynamic methodYuexi ZhongHongwei ZhaoZhichao MaYue ShiHaishuang FuMulti-tip micro/nano-scratching technology has been widely used in precision manufacturing. In this study, the smooth particle hydrodynamic based on micro-scratching model is proposed to study the effect of double-tip inclined angles on such a scratching process. A series of simulations were conducted with the double-tip tilting with 0°, 5°, and 10° on the oxygen-free copper surfaces. In this article, the formation of burrs and scratching forces was illustrated and analyzed based on the simulation results. It is noted that when the double-tip tilted, the burrs generated more and side flows curled seriously during scratching process. With an increase in the scratching distance, more burrs generate on both sides of the groove. The tangential, thrust, and lateral forces are all affected by the extrusion of side flows and the protrusion in middle. Moreover, the scratching forces of tangential and thrust showed that the double-tip scratching process can be divided into three stages: initial scratching stage, transition scratching stage, and stable scratching stage. During transition scratching stage, the most violent scratching forces generated in the condition of the double-tip tilting with 10°.https://doi.org/10.1177/1687814017720877
collection DOAJ
language English
format Article
sources DOAJ
author Yuexi Zhong
Hongwei Zhao
Zhichao Ma
Yue Shi
Haishuang Fu
spellingShingle Yuexi Zhong
Hongwei Zhao
Zhichao Ma
Yue Shi
Haishuang Fu
A study on the effect of double-tip inclined angle on micro-scratching process using smooth particle hydrodynamic method
Advances in Mechanical Engineering
author_facet Yuexi Zhong
Hongwei Zhao
Zhichao Ma
Yue Shi
Haishuang Fu
author_sort Yuexi Zhong
title A study on the effect of double-tip inclined angle on micro-scratching process using smooth particle hydrodynamic method
title_short A study on the effect of double-tip inclined angle on micro-scratching process using smooth particle hydrodynamic method
title_full A study on the effect of double-tip inclined angle on micro-scratching process using smooth particle hydrodynamic method
title_fullStr A study on the effect of double-tip inclined angle on micro-scratching process using smooth particle hydrodynamic method
title_full_unstemmed A study on the effect of double-tip inclined angle on micro-scratching process using smooth particle hydrodynamic method
title_sort study on the effect of double-tip inclined angle on micro-scratching process using smooth particle hydrodynamic method
publisher SAGE Publishing
series Advances in Mechanical Engineering
issn 1687-8140
publishDate 2017-08-01
description Multi-tip micro/nano-scratching technology has been widely used in precision manufacturing. In this study, the smooth particle hydrodynamic based on micro-scratching model is proposed to study the effect of double-tip inclined angles on such a scratching process. A series of simulations were conducted with the double-tip tilting with 0°, 5°, and 10° on the oxygen-free copper surfaces. In this article, the formation of burrs and scratching forces was illustrated and analyzed based on the simulation results. It is noted that when the double-tip tilted, the burrs generated more and side flows curled seriously during scratching process. With an increase in the scratching distance, more burrs generate on both sides of the groove. The tangential, thrust, and lateral forces are all affected by the extrusion of side flows and the protrusion in middle. Moreover, the scratching forces of tangential and thrust showed that the double-tip scratching process can be divided into three stages: initial scratching stage, transition scratching stage, and stable scratching stage. During transition scratching stage, the most violent scratching forces generated in the condition of the double-tip tilting with 10°.
url https://doi.org/10.1177/1687814017720877
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