Design and Research on Ballast Anti-Heeling System for the Crane/Pipe-Laying Vessel Based on DP3 Requirements

Zeng Hua Sun; Dan Wang

doi:10.4028/www.scientific.net/AMM.574.281

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HomeApplied Mechanics and MaterialsApplied Mechanics and Materials Vol. 574Design and Research on Ballast Anti-Heeling System...

Design and Research on Ballast Anti-Heeling System for the Crane/Pipe-Laying Vessel Based on DP3 Requirements

Abstract:

To ensure the stability of the crane/pipe-laying function in different working conditions, the redundancy of ballast system of a certain crane/pipe-laying vessel is designed according to the relative requirements of the third class dynamic positioning (DP3) in regulations and the characteristics of the vessel arrangement. The DP3 requirements of the redundancy of ballast system for the vessel are satisfied by means of the arrangement of ballast pumps and the redundancy configuration of the piping systems. Simultaneously, the ballast anti-heeling system is able to fulfill different working conditions.

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Periodical:

Applied Mechanics and Materials (Volume 574)

Pages:

281-286

DOI:

https://doi.org/10.4028/www.scientific.net/AMM.574.281

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Online since:

July 2014

Authors:

Zeng Hua Sun*, Dan Wang

Keywords:

Anti-Heeling, Ballast Systems, Crane/Pipe-Laying Vessel, Dynamic Positioning

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* - Corresponding Author

References

[1] Dong Shengli, Han Bing, Wen Chunhong. Thrust Allocation of Dynamic Positioning System of a 2000t Crane Ship, Journal of Shanghai Ship and Shipping Research Institute. 2011. 34 (1). 21-22.

Google Scholar

[2] Sheng Qingwu. Design and research on mooring position of a 3000t crane pipe-laying vessel, Naval Achitecture and Ocean Engineering. 2012. 1. 84-93.

Google Scholar

[3] Yuan Feihui, Xiong Yong, Song Jinyang. Application of DP-3 control system on drilling platform , Shanghai Shipbuilding. 2010. 1. 42-45.

Google Scholar

[4] Wang Fang, Wan Lei, Jiang Dapeng, Wang Zhuo, Xu Yuru. Control Architecture of DP-3 Dynamic Positioning System , Journal of Basic Science and Engineering. 2012. 20 (1). 130-138.

Google Scholar

[5] Chen Ruirui. The way to realize DP3 requirements for DPV project dynamic system, Ship Engineering. 2010. Vol. 32. 33-34.

Google Scholar

[6] Zhang Tianyu, Wang Jinguang, Li Lei, Han Ronggui, Ding Chaopeng, Yang Zhonghua, Gao Song. The Analysis for Dynamic Positioning Capacity of Semi- submersible Crane Vessel, China Offshore Platform. 2011. 26 (3). 53-56.

Google Scholar

[7] Yu Peiwen, Chen Hui, Liu Furong. Simulation of Optimal Controller for Ship Dynamic Positioning System, Ship and Ocean Engineering. 2009. 38(4), 118-120.

Google Scholar

[8] Geng Tao. The Introduction of IMO's Dynamic Positioning System Rule, Shipbuilding of China. 2008. 49. 624-627.

Google Scholar