Simulation Study of Load Sharing of the Herringbone Power Split Gear Train

The load sharing design is a crucial technology that leverages the configuration advantages of the herringbone power split gear train. To improve the load sharing characteristics of the herringbone power split gear train, a static model that accounts for support stiffness, torsional stiffness, and g...

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Main Authors: Zhang Lina, Ning Fenglian, Ding Jintao
Format: Article
Language:zho
Published: Editorial Office of Journal of Mechanical Transmission 2024-07-01
Series:Jixie chuandong
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Online Access:http://www.jxcd.net.cn/thesisDetails#10.16578/j.issn.1004.2539.2024.07.012
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author Zhang Lina
Ning Fenglian
Ding Jintao
author_facet Zhang Lina
Ning Fenglian
Ding Jintao
author_sort Zhang Lina
collection DOAJ
description The load sharing design is a crucial technology that leverages the configuration advantages of the herringbone power split gear train. To improve the load sharing characteristics of the herringbone power split gear train, a static model that accounts for support stiffness, torsional stiffness, and gear mesh stiffness is construceted. The main factors affecting load sharing characteristics under the influence of errors and varying loads are analyzed. By using Romax software, a finite element simulation model consideres structural features like floating components, flexible elements, and herringbone gears, as well as errors and transmission system deformations, and load sharing coefficients are determined. The isolated impact of factors such as eccentricity error, synchronization angle, elastic shaft torsional stiffness, and herringbone gear symmetry error on load sharing characteristics is examined. Furthermore, utilizing the orthogonal experimental method, the interaction patterns and significance levels of these factors on load sharing characteristics are uncovered. The results show that synchronization angle and herringbone gear symmetry error significantly affect load sharing characteristics, with elastic shaft torsional stiffness being the next most influential factor, and eccentricity error having a noticeable impact. To achieve superior load sharing characteristics, it is recommended to use lower elastic shaft torsional stiffness in design, and employ parameter-matching design methods for the connection between the transmission shaft and gear keyway to reduce synchronization angles.
format Article
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institution Kabale University
issn 1004-2539
language zho
publishDate 2024-07-01
publisher Editorial Office of Journal of Mechanical Transmission
record_format Article
series Jixie chuandong
spelling doaj-art-5b000f2978034079ab89db16d6bfb9b32025-01-10T15:01:03ZzhoEditorial Office of Journal of Mechanical TransmissionJixie chuandong1004-25392024-07-01489110066780143Simulation Study of Load Sharing of the Herringbone Power Split Gear TrainZhang LinaNing FenglianDing JintaoThe load sharing design is a crucial technology that leverages the configuration advantages of the herringbone power split gear train. To improve the load sharing characteristics of the herringbone power split gear train, a static model that accounts for support stiffness, torsional stiffness, and gear mesh stiffness is construceted. The main factors affecting load sharing characteristics under the influence of errors and varying loads are analyzed. By using Romax software, a finite element simulation model consideres structural features like floating components, flexible elements, and herringbone gears, as well as errors and transmission system deformations, and load sharing coefficients are determined. The isolated impact of factors such as eccentricity error, synchronization angle, elastic shaft torsional stiffness, and herringbone gear symmetry error on load sharing characteristics is examined. Furthermore, utilizing the orthogonal experimental method, the interaction patterns and significance levels of these factors on load sharing characteristics are uncovered. The results show that synchronization angle and herringbone gear symmetry error significantly affect load sharing characteristics, with elastic shaft torsional stiffness being the next most influential factor, and eccentricity error having a noticeable impact. To achieve superior load sharing characteristics, it is recommended to use lower elastic shaft torsional stiffness in design, and employ parameter-matching design methods for the connection between the transmission shaft and gear keyway to reduce synchronization angles.http://www.jxcd.net.cn/thesisDetails#10.16578/j.issn.1004.2539.2024.07.012Dual-path power split gear trainHerringbone toothLoad sharing characteristics
spellingShingle Zhang Lina
Ning Fenglian
Ding Jintao
Simulation Study of Load Sharing of the Herringbone Power Split Gear Train
Jixie chuandong
Dual-path power split gear train
Herringbone tooth
Load sharing characteristics
title Simulation Study of Load Sharing of the Herringbone Power Split Gear Train
title_full Simulation Study of Load Sharing of the Herringbone Power Split Gear Train
title_fullStr Simulation Study of Load Sharing of the Herringbone Power Split Gear Train
title_full_unstemmed Simulation Study of Load Sharing of the Herringbone Power Split Gear Train
title_short Simulation Study of Load Sharing of the Herringbone Power Split Gear Train
title_sort simulation study of load sharing of the herringbone power split gear train
topic Dual-path power split gear train
Herringbone tooth
Load sharing characteristics
url http://www.jxcd.net.cn/thesisDetails#10.16578/j.issn.1004.2539.2024.07.012
work_keys_str_mv AT zhanglina simulationstudyofloadsharingoftheherringbonepowersplitgeartrain
AT ningfenglian simulationstudyofloadsharingoftheherringbonepowersplitgeartrain
AT dingjintao simulationstudyofloadsharingoftheherringbonepowersplitgeartrain