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Digital force prediction for milling

Michael Gomez, Timothy No, Tony L. Schmitz

2020Procedia Manufacturing10 citationsDOIOpen Access PDF

Abstract

This paper presents a fully digital, integrated approach for milling force prediction with arbitrary end mill-work material combinations. The approach includes: 1) structured light scanning to identify the end mill’s cutting edge macro-geometry along the tool axis; 2) structured light scanning to measure the cutting edge cross-sectional rake and relief profiles; 3) finite element analysis of orthogonal cutting to determine the force model coefficients that relate the force to chip area using the work material’s constitutive model and tool’s rake and relief profiles; and 4) time domain simulation with inputs that include the measured cutting edge macro-geometry, finite element-based force model, and measured structural dynamics. Milling force predictions are compared to in-process measurements to validate the method.

Topics & Concepts

End millRakeFinite element methodEnhanced Data Rates for GSM EvolutionMacroRake angleMechanical engineeringProcess (computing)Measure (data warehouse)Work (physics)EngineeringChipStructural engineeringMachiningEngineering drawingComputer scienceTelecommunicationsElectrical engineeringOperating systemDatabaseProgramming languageAdvanced machining processes and optimizationAdvanced Machining and Optimization TechniquesAdvanced Surface Polishing Techniques
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