Optimization of Electrostatic Atomization Cutting Using 3D FE Simulation of Electrostatic Field

Yu Su; Le Gong; Hui Cao; Dan Dan Chen

doi:10.4028/www.scientific.net/KEM.693.1255

Paper Titles

A Study on Tool Wear Prediction in Ultrasonic Vibration Turning of Tungsten Carbide
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Effect Analysis of Multifactor of HSS Tap Life Based on Orthogonal Experiment with Interaction
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Modeling and Simulation of Single Abrasive-Grain Cutting Process in Creep Feed Grinding
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One-Third Sub-Harmonic Resonance Analysis for the Up-Going Strip Emerging from the Zinc Pot
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Optimization of Electrostatic Atomization Cutting Using 3D FE Simulation of Electrostatic Field
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Research on the Influence of Multidimensional Vibration on Casting Filling Capacity Based on Discrete Element Method
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Development of the Two-Dimensional Ultrasonic Cutting System Based on the Mechanism of Single-Excitation Elliptical Vibration by Means of Opening Chutes on the Horn
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Quantitative Analysis and Evaluation of Valve Core Spherical Surface Grinding Texture
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3D Model Reconstruction of the Broken Aero Engine Blade Based on the Detection Operator
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HomeKey Engineering MaterialsKey Engineering Materials Vol. 693Optimization of Electrostatic Atomization Cutting...

Optimization of Electrostatic Atomization Cutting Using 3D FE Simulation of Electrostatic Field

Abstract:

Compared with minimal quantity lubrication (MQL), electrostatic atomization can control the movement of mist droplets by changing the electrostatic field, thus reducing the drift of mist droplets in air. This paper first proposes the concept of electrostatic atomization cutting, and then develops a 3D FE model of electrostatic field for electrostatic atomization cutting using a commercial software Ansoft Maxwell. By simulation, the influence of nozzle angle, structure, and electrode gap and voltage on electric field intensity is investigated. Based on simulation results, the optimal nozzle angle and structure are obtained for electrostatic atomization cutting. The findings contribute to further development of this technique.

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Periodical:

Key Engineering Materials (Volume 693)

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1255-1262

DOI:

https://doi.org/10.4028/www.scientific.net/KEM.693.1255

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Online since:

May 2016

Authors:

Yu Su, Le Gong, Hui Cao, Dan Dan Chen

Keywords:

Electric Field Intensity, Electrode Gap, Electrode Voltage, Electrostatic Atomization Cutting, Nozzle Angle

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