Optimization of ventilated brake disc rotor geometry for enhanced structural characteristics

This paper focuses on analyzing the effect of geometrical parameters on structural performance of the ventilated brake disc. Multi-objective optimization through response surface methodology was deployed for improving the structural performance of ventilated brake discs. Simulation runs were designe...

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Main Authors: Indira Roy, Bharatish A
Format: Article
Language:English
Published: JVE International 2020-09-01
Series:Journal of Measurements in Engineering
Subjects:
Online Access:https://www.jvejournals.com/article/21399
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spelling doaj-f3301c36e69345c89a26781a6d0b07362020-11-25T03:43:25ZengJVE InternationalJournal of Measurements in Engineering2335-21242424-46352020-09-01839810610.21595/jme.2020.2139921399Optimization of ventilated brake disc rotor geometry for enhanced structural characteristicsIndira Roy0Bharatish A1Department of Mechanical Engineering, RV College of Engineering, RV Vidyaniketan Post Mysore road Bangalore, 560059, IndiaDepartment of Mechanical Engineering, RV College of Engineering, RV Vidyaniketan Post Mysore road Bangalore, 560059, IndiaThis paper focuses on analyzing the effect of geometrical parameters on structural performance of the ventilated brake disc. Multi-objective optimization through response surface methodology was deployed for improving the structural performance of ventilated brake discs. Simulation runs were designed based on central composite design technique. The second order regression models correlating the geometry parameters with maximum deformation and equivalent stress were developed. ANOVA was performed to test the significance of disc geometry parameters. The deformation and equivalent stress were influenced by flange outer peripheral radius. While the spigot radius had a significant effect on the deformation but not on equivalent stress. Also, the mounting surface radius influenced the equivalent stress developed on the ventilated brake disc rotor. The multi-objective optimization of geometrical characteristics for minimum deformation (4.2332 µm) and minimum equivalent stress (4.00989 MPa) yielded significant reduction in total deformation and equivalent stress i.e., 10.28 % and 9.12 % respectively at optimal levels of geometrical parameters.https://www.jvejournals.com/article/21399structural analysisresponse surface methodologyventilated brake discregression analysis
collection DOAJ
language English
format Article
sources DOAJ
author Indira Roy
Bharatish A
spellingShingle Indira Roy
Bharatish A
Optimization of ventilated brake disc rotor geometry for enhanced structural characteristics
Journal of Measurements in Engineering
structural analysis
response surface methodology
ventilated brake disc
regression analysis
author_facet Indira Roy
Bharatish A
author_sort Indira Roy
title Optimization of ventilated brake disc rotor geometry for enhanced structural characteristics
title_short Optimization of ventilated brake disc rotor geometry for enhanced structural characteristics
title_full Optimization of ventilated brake disc rotor geometry for enhanced structural characteristics
title_fullStr Optimization of ventilated brake disc rotor geometry for enhanced structural characteristics
title_full_unstemmed Optimization of ventilated brake disc rotor geometry for enhanced structural characteristics
title_sort optimization of ventilated brake disc rotor geometry for enhanced structural characteristics
publisher JVE International
series Journal of Measurements in Engineering
issn 2335-2124
2424-4635
publishDate 2020-09-01
description This paper focuses on analyzing the effect of geometrical parameters on structural performance of the ventilated brake disc. Multi-objective optimization through response surface methodology was deployed for improving the structural performance of ventilated brake discs. Simulation runs were designed based on central composite design technique. The second order regression models correlating the geometry parameters with maximum deformation and equivalent stress were developed. ANOVA was performed to test the significance of disc geometry parameters. The deformation and equivalent stress were influenced by flange outer peripheral radius. While the spigot radius had a significant effect on the deformation but not on equivalent stress. Also, the mounting surface radius influenced the equivalent stress developed on the ventilated brake disc rotor. The multi-objective optimization of geometrical characteristics for minimum deformation (4.2332 µm) and minimum equivalent stress (4.00989 MPa) yielded significant reduction in total deformation and equivalent stress i.e., 10.28 % and 9.12 % respectively at optimal levels of geometrical parameters.
topic structural analysis
response surface methodology
ventilated brake disc
regression analysis
url https://www.jvejournals.com/article/21399
work_keys_str_mv AT indiraroy optimizationofventilatedbrakediscrotorgeometryforenhancedstructuralcharacteristics
AT bharatisha optimizationofventilatedbrakediscrotorgeometryforenhancedstructuralcharacteristics
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