LIGHTWEIGHT DESIGN FOR OVERHAUL TOOLING SUPPORT SEAT BASED ON TOPOLOGY OPTIMIZATION AND SIX SIGMA ROBUSTNESS

In order to give full play to the lightweight potential of the tread braking unit( TBU) overhaul tooling support seat and improve the reliability and robustness of the optimization design,an optimization strategy composed of topology optimization and 6σrobustness optimization was proposed. Support s...

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Main Authors: WANG ZiNing, WU JianJun, XIANG JianMing, WANG BaiSong, JIN YingQi
Format: Article
Language:zho
Published: Editorial Office of Journal of Mechanical Strength 2020-01-01
Series:Jixie qiangdu
Subjects:
Online Access:http://www.jxqd.net.cn/thesisDetails#10.16579/j.issn.1001.9669.2020.01.015
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author WANG ZiNing
WU JianJun
XIANG JianMing
WANG BaiSong
JIN YingQi
author_facet WANG ZiNing
WU JianJun
XIANG JianMing
WANG BaiSong
JIN YingQi
author_sort WANG ZiNing
collection DOAJ
description In order to give full play to the lightweight potential of the tread braking unit( TBU) overhaul tooling support seat and improve the reliability and robustness of the optimization design,an optimization strategy composed of topology optimization and 6σrobustness optimization was proposed. Support seat’s topology structures was extracted based on topology optimization with variable density method. The response surface model was established based on the central composite design method and the finite element numerical simulation technique. The support seat’s 6σ robustness optimization design model was established based on this model. The sequential quadratic programming method was adopted to solve this optimization problem.The reliabilities of the optimization results were obtained with the mean value first order and second moment method,and were transformed into corresponding σlevels. The results show that reliability of the design variables,strength and stiffness are all 1,reaching eight sigma level,the support seat’s weight is reduced by 67. 0% and the lightweight effect is remarkable; compared with the support seat’s traditional deterministic optimization design after topology optimization,this method enhances the strength and stiffness of the support seat,meanwhile,improves the reliability of the optimization design,the robustness of the strength,the robustness of the stiffness and the consistency of the weight. So the proposed optimization strategy is proved to be efficient.
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spelling doaj.art-d9fca9dfc4cc4cb989e2704178d8935c2023-08-01T07:50:51ZzhoEditorial Office of Journal of Mechanical StrengthJixie qiangdu1001-96692020-01-01429410130607176LIGHTWEIGHT DESIGN FOR OVERHAUL TOOLING SUPPORT SEAT BASED ON TOPOLOGY OPTIMIZATION AND SIX SIGMA ROBUSTNESSWANG ZiNingWU JianJunXIANG JianMingWANG BaiSongJIN YingQiIn order to give full play to the lightweight potential of the tread braking unit( TBU) overhaul tooling support seat and improve the reliability and robustness of the optimization design,an optimization strategy composed of topology optimization and 6σrobustness optimization was proposed. Support seat’s topology structures was extracted based on topology optimization with variable density method. The response surface model was established based on the central composite design method and the finite element numerical simulation technique. The support seat’s 6σ robustness optimization design model was established based on this model. The sequential quadratic programming method was adopted to solve this optimization problem.The reliabilities of the optimization results were obtained with the mean value first order and second moment method,and were transformed into corresponding σlevels. The results show that reliability of the design variables,strength and stiffness are all 1,reaching eight sigma level,the support seat’s weight is reduced by 67. 0% and the lightweight effect is remarkable; compared with the support seat’s traditional deterministic optimization design after topology optimization,this method enhances the strength and stiffness of the support seat,meanwhile,improves the reliability of the optimization design,the robustness of the strength,the robustness of the stiffness and the consistency of the weight. So the proposed optimization strategy is proved to be efficient.http://www.jxqd.net.cn/thesisDetails#10.16579/j.issn.1001.9669.2020.01.015TBU overhaul tooling support seat;Lightweight design;Topology optimization;6σ robustness optimization;Response surface mode
spellingShingle WANG ZiNing
WU JianJun
XIANG JianMing
WANG BaiSong
JIN YingQi
LIGHTWEIGHT DESIGN FOR OVERHAUL TOOLING SUPPORT SEAT BASED ON TOPOLOGY OPTIMIZATION AND SIX SIGMA ROBUSTNESS
Jixie qiangdu
TBU overhaul tooling support seat;Lightweight design;Topology optimization;6σ robustness optimization;Response surface mode
title LIGHTWEIGHT DESIGN FOR OVERHAUL TOOLING SUPPORT SEAT BASED ON TOPOLOGY OPTIMIZATION AND SIX SIGMA ROBUSTNESS
title_full LIGHTWEIGHT DESIGN FOR OVERHAUL TOOLING SUPPORT SEAT BASED ON TOPOLOGY OPTIMIZATION AND SIX SIGMA ROBUSTNESS
title_fullStr LIGHTWEIGHT DESIGN FOR OVERHAUL TOOLING SUPPORT SEAT BASED ON TOPOLOGY OPTIMIZATION AND SIX SIGMA ROBUSTNESS
title_full_unstemmed LIGHTWEIGHT DESIGN FOR OVERHAUL TOOLING SUPPORT SEAT BASED ON TOPOLOGY OPTIMIZATION AND SIX SIGMA ROBUSTNESS
title_short LIGHTWEIGHT DESIGN FOR OVERHAUL TOOLING SUPPORT SEAT BASED ON TOPOLOGY OPTIMIZATION AND SIX SIGMA ROBUSTNESS
title_sort lightweight design for overhaul tooling support seat based on topology optimization and six sigma robustness
topic TBU overhaul tooling support seat;Lightweight design;Topology optimization;6σ robustness optimization;Response surface mode
url http://www.jxqd.net.cn/thesisDetails#10.16579/j.issn.1001.9669.2020.01.015
work_keys_str_mv AT wangzining lightweightdesignforoverhaultoolingsupportseatbasedontopologyoptimizationandsixsigmarobustness
AT wujianjun lightweightdesignforoverhaultoolingsupportseatbasedontopologyoptimizationandsixsigmarobustness
AT xiangjianming lightweightdesignforoverhaultoolingsupportseatbasedontopologyoptimizationandsixsigmarobustness
AT wangbaisong lightweightdesignforoverhaultoolingsupportseatbasedontopologyoptimizationandsixsigmarobustness
AT jinyingqi lightweightdesignforoverhaultoolingsupportseatbasedontopologyoptimizationandsixsigmarobustness