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Citation:
 Junyuan Ma,Jianhua Xiao,Rui Ma and Kai Cao.FPSO Global Strength and Hull Optimization[J].Journal of Marine Science and Application,2014,(1):55-61.[doi:10.1007/s11804-014-1227-0]
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FPSO Global Strength and Hull Optimization

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Title:
FPSO Global Strength and Hull Optimization
Author(s):
Junyuan Ma Jianhua Xiao Rui Ma and Kai Cao
Affilations:
Author(s):
Junyuan Ma Jianhua Xiao Rui Ma and Kai Cao
COSCO(Dalian) Shipyard Co.,Ltd, 116113,China
Keywords:
global strength hull optimization FPSO steel weight building costs hull strength ship design hull design
分类号:
-
DOI:
10.1007/s11804-014-1227-0
Abstract:
Global strength is a significant item for floating production storage and offloading (FPSO) design, and steel weight plays an important role in the building costs of FPSO. It is the main task to consider and combine these two aspects by optimizing hull dimensions. There are many optional methods for the global strength analysis. A common method is to use the ABS FPSO Eagle software to analyze the global strength including the rule check and direct strength analysis. And the same method can be adopted for the FPSO hull optimization by changing the depth. After calculation and optimization, the results are compared and analyzed. The results can be used as a reference for the future design or quotation purpose.

References:

ABS (2013). Rules for building and classing floating production installations. American Bureau of Shipping.
ABS (2009). Guide for the fatigue assessment of offshore structures. American Bureau of Shipping.
ABS (2012). Guide for buckling and ultimate strength assessment for offshore structures. American Bureau of Shipping.
BV (2013). Rules for the classification of offshore units. Bureau Veritas.
Chakarov K, Garbatov Y, Guedes Soares C (2008). Fatigue analysis of ship deck structure accounting for imperfections. International Journal of Fatigue, 30(10-11), 1881-1897.
Deng Xian-feng, Li Xiaoming, Zhang Tie, Chen Dongchang, Huang Qin (2009). Global performance snalysis for FPSO in shallow water. Shipbuilding of China, 50(A11), 192-198.
DNV (2011). Design of offshore steel structures, general(LRFD Method) . Det Norske Veritas.
Ferro G, Cervetto Soares C (1984). Hull girder reliability. Proceedings of the Ship Structural Symposium, 89-110.
Hu Yuren, Chen Bozhen (1996). Fatigue reliability analysis of the ship and ocean engineering strucures. Beijing, China Communication Press, 127-146.
IMO(2004). MARPOL 73/78. International Maritime Organization.
IMO(2005). Load Lines. International Maritime Organization.
IMO (2009). Code for The Construction And Equipment of Mobile Offshore Drilling Units. International Maritime Organization.
IMO (2008). International code on intact stability. International Maritime Organization.
Miner MA (1945). Cumulative damage in fatigue. Journal of Applied Mechanics-Transactions of the ASME, 12(3), A159-A164.
Molin B, Remy F, Rigaud S, Jouette (de) Ch. (2002). LNG-FPSO’s: frequency domain, coupled analysis of support and liquid cargo motions. IMAM, Greece.
Paik JK, Kim BJ, Seo JK (2008). Methods for ultimate limit state assessment of ships and ship-shaped offshore structures. Ocean Engineering, 35, 261-270.
Rognebakke OF, Faltinsen O (2001). Effect of sloshing on ship motions. 17th Int. Workship on Water Waves and Floating Bodies, Hiroshima, Japan.
Zhao Gengxian (2002). FPSO design. Shanghai Shipbuilding, (2), 4-8.
Zhao Gengxian (2002). On the design features of FPSO structures. Ship &Boat, (1), 38-41.

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Last Update: 2014-11-04