Mathematical support for automated geometry analysis of lathe machining of oblique peakless round-nose tools

A. V. Filippov, S. Yu Tarasov, O. A. Podgornyh, N. N. Shamarin, E. O. Filippova

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1 Citation (Scopus)

Abstract

Automatization of engineering processes requires developing relevant mathematical support and a computer software. Analysis of metal cutting kinematics and tool geometry is a necessary key task at the preproduction stage. This paper is focused on developing a procedure for determining the geometry of oblique peakless round-nose tool lathe machining with the use of vector/matrix transformations. Such an approach allows integration into modern mathematical software packages in distinction to the traditional analytic description. Such an advantage is very promising for developing automated control of the preproduction process. A kinematic criterion for the applicable tool geometry has been developed from the results of this study. The effect of tool blade inclination and curvature on the geometry-dependent process parameters was evaluated.

Original languageEnglish
Article number012041
JournalJournal of Physics: Conference Series
Volume803
Issue number1
DOIs
Publication statusPublished - 2017

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machining
geometry
kinematics
metal cutting
computer programs
blades
inclination
curvature
engineering
matrices

ASJC Scopus subject areas

  • Physics and Astronomy(all)

Cite this

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AB - Automatization of engineering processes requires developing relevant mathematical support and a computer software. Analysis of metal cutting kinematics and tool geometry is a necessary key task at the preproduction stage. This paper is focused on developing a procedure for determining the geometry of oblique peakless round-nose tool lathe machining with the use of vector/matrix transformations. Such an approach allows integration into modern mathematical software packages in distinction to the traditional analytic description. Such an advantage is very promising for developing automated control of the preproduction process. A kinematic criterion for the applicable tool geometry has been developed from the results of this study. The effect of tool blade inclination and curvature on the geometry-dependent process parameters was evaluated.

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