Modal analysis and lightweight design of key components of the anchor windlass

To improve the rationality of the mechanical design of traditional ship anchor windlass, based on modal analysis, lightweight research was conducted on key components. Taking the first-order natural frequency as the constraint condition, topological optimization design was carried out for the base, and size optimization design based on the response surface algorithm was carried out for the anchor chain wheel. On the premise of meeting the overall structural strength and stiffness requirements of the anchor windlass, its weight was reduced as much as possible. Through the finite element analysis and strength check of the optimized model, it was verified that the optimization results met the design requirements. The research shows that the weight reduction rate of the base reached 13.34 %, and the weight reduction rate of the anchor sprocket reached 10.5 %. After analysis and verification, the optimized structure can still meet the overall mechanical performance of the anchor windlass and achieve the expected design goal, which also provides an important reference for the structural optimization and lightweight research of other ship equipment.

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Publication Details

Journal
Vibroengineering PROCEDIA
Published
2024-12-12
DOI
https://doi.org/10.21595/vp.2024.24601
Primary Topic
Engineering Structural Analysis Methods
Type
article
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article

Modal analysis and lightweight design of key components of the anchor windlass

文雄 菊池, Juan Wang, Hao Sun
Vibroengineering PROCEDIA
Engineering Structural Analysis Methods
article

Modal analysis and lightweight design of key components of the anchor windlass

文雄 菊池, Juan Wang, Hao Sun
article en

Abstract

To improve the rationality of the mechanical design of traditional ship anchor windlass, based on modal analysis, lightweight research was conducted on key components. Taking the first-order natural frequency as the constraint condition, topological optimization design was carried out for the base, and size optimization design based on the response surface algorithm was carried out for the anchor chain wheel. On the premise of meeting the overall structural strength and stiffness requirements of the anchor windlass, its weight was reduced as much as possible. Through the finite element analysis and strength check of the optimized model, it was verified that the optimization results met the design requirements. The research shows that the weight reduction rate of the base reached 13.34 %, and the weight reduction rate of the anchor sprocket reached 10.5 %. After analysis and verification, the optimized structure can still meet the overall mechanical performance of the anchor windlass and achieve the expected design goal, which also provides an important reference for the structural optimization and lightweight research of other ship equipment.

Vibroengineering PROCEDIAVol. 57
Affordable and clean energy
Openalex Percentile: Top 76%
Engineering Structural Analysis Methods
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