Optimum microgeometry modifications of herringbone gear by means of fitness predicted genetic algorithm

This paper presents a systematic methodology focused on herringbone gear microgeometry modifications toward vibration reduction. The dynamic model considering the unique characteristics of aviation herringbone gear is developed to study the vibration behavior. The optimal ease-off shape can be defin...

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Main Authors: Pengyuan Qiu, Ning Zhao, Feng Wang
Format: Article
Language:English
Published: JVE International 2016-12-01
Series:Journal of Vibroengineering
Subjects:
Online Access:https://www.jvejournals.com/article/17179
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spelling doaj-a54470bfc24b4388bafc3534495e2ca02020-11-25T01:16:19ZengJVE InternationalJournal of Vibroengineering1392-87162538-84602016-12-011884964497910.21595/jve.2016.1717917179Optimum microgeometry modifications of herringbone gear by means of fitness predicted genetic algorithmPengyuan Qiu0Ning Zhao1Feng Wang2Department of Mechanical Engineering, Northwestern Polytechnical University, Xi’an 710072, ChinaDepartment of Mechanical Engineering, Northwestern Polytechnical University, Xi’an 710072, ChinaAutomotive Engineering Research Institute, JiangSu University, ZhenJiang 212013, ChinaThis paper presents a systematic methodology focused on herringbone gear microgeometry modifications toward vibration reduction. The dynamic model considering the unique characteristics of aviation herringbone gear is developed to study the vibration behavior. The optimal ease-off shape can be defined as the outcome of a multi-objective optimization process, the objective functions are loaded transmission error, meshing impact excitation and root mean square (RMS) of vibration acceleration. With special attention given to computational efficiency, a novel fitness predicted genetic algorithm is developed. An application to herringbone gear are presented, the results show the proposed method can obtain optimal modifications that significantly improve the gear performance over a wide range of operating conditions. Furthermore, the reduction of the vibration also leads to a reduction of bending stresses. Finally, a test on herringbone gear is executed under various combinations of torque and speed to demonstrate the accuracy of the proposed model.https://www.jvejournals.com/article/17179herringbone geartooth surface modificationfitness predicted genetic algorithmmulti-objective optimizationvibrationtest
collection DOAJ
language English
format Article
sources DOAJ
author Pengyuan Qiu
Ning Zhao
Feng Wang
spellingShingle Pengyuan Qiu
Ning Zhao
Feng Wang
Optimum microgeometry modifications of herringbone gear by means of fitness predicted genetic algorithm
Journal of Vibroengineering
herringbone gear
tooth surface modification
fitness predicted genetic algorithm
multi-objective optimization
vibration
test
author_facet Pengyuan Qiu
Ning Zhao
Feng Wang
author_sort Pengyuan Qiu
title Optimum microgeometry modifications of herringbone gear by means of fitness predicted genetic algorithm
title_short Optimum microgeometry modifications of herringbone gear by means of fitness predicted genetic algorithm
title_full Optimum microgeometry modifications of herringbone gear by means of fitness predicted genetic algorithm
title_fullStr Optimum microgeometry modifications of herringbone gear by means of fitness predicted genetic algorithm
title_full_unstemmed Optimum microgeometry modifications of herringbone gear by means of fitness predicted genetic algorithm
title_sort optimum microgeometry modifications of herringbone gear by means of fitness predicted genetic algorithm
publisher JVE International
series Journal of Vibroengineering
issn 1392-8716
2538-8460
publishDate 2016-12-01
description This paper presents a systematic methodology focused on herringbone gear microgeometry modifications toward vibration reduction. The dynamic model considering the unique characteristics of aviation herringbone gear is developed to study the vibration behavior. The optimal ease-off shape can be defined as the outcome of a multi-objective optimization process, the objective functions are loaded transmission error, meshing impact excitation and root mean square (RMS) of vibration acceleration. With special attention given to computational efficiency, a novel fitness predicted genetic algorithm is developed. An application to herringbone gear are presented, the results show the proposed method can obtain optimal modifications that significantly improve the gear performance over a wide range of operating conditions. Furthermore, the reduction of the vibration also leads to a reduction of bending stresses. Finally, a test on herringbone gear is executed under various combinations of torque and speed to demonstrate the accuracy of the proposed model.
topic herringbone gear
tooth surface modification
fitness predicted genetic algorithm
multi-objective optimization
vibration
test
url https://www.jvejournals.com/article/17179
work_keys_str_mv AT pengyuanqiu optimummicrogeometrymodificationsofherringbonegearbymeansoffitnesspredictedgeneticalgorithm
AT ningzhao optimummicrogeometrymodificationsofherringbonegearbymeansoffitnesspredictedgeneticalgorithm
AT fengwang optimummicrogeometrymodificationsofherringbonegearbymeansoffitnesspredictedgeneticalgorithm
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