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Fig. 2 Stability characteristics associated with the direct risk assessment method.

 

7. CONCLUSIONS

 

The Integrated Ship Safety Estimation Method (ISSEM) has been worked out and it is directed towards the ship safety estimation in critical conditions at the preliminary stage of design. Using the ISSEM method the hazard and risk assessment may be done according to the IMO regulations for cargo ships. In the case when there is no possibility to assess the hazards (for example for special types of ships) an alternative procedure has been prepared for the risk assessment. So far, the ISSEM method and computational model have been used for investigating the new solutions regarding the ships safety from the damage stability and survivability point of view. The method can be used for intelligent guiding ship subdivision for safety. A few arrangements of internal spaces for cargo ships including either transverse or combined subdivision have been investigated. Both the damage stability and survivability/risk assessment were done for each case. The method can use semi-probabilistic and probabilistic safety measure procedures. It can be classified as a combined "parametric - risk-based assessment method" for the ship safety estimation in critical conditions, at the preliminary stage of design.

 

 

8. REFERENCES

 

[1] IMO Document SLF 40/4/5 (1996). Harmonisation of Damage Stability Provisions in IMO Instruments, A Proposal on New Damage Stability Framework for Ro-Ro Vessels based upon Joint North West European R&D Project "Safety of Passenger/Ro-Ro Vessels", submitted by Denmark, Finland, Norway, Sweden and the United Kingdom, London.

[2] Gerigk, M. (1999). Modern Numerical Techniques for the Ships Safety Estimation in Critical Conditions. Task Quarterly, Scientific Bulletin of Academic Computer Centre in Gdansk, Volume 3, Number 2, pages 201 - 226.

[3] Gerigk, M. (1999). Hazard Identification. Hazard and Risk Assessment for a Ship when Surviving. Third International Conference on Marine Technology ODRA'99, Technical University of Szczecin, Wessex Institute of Technology, WIT Press, Southampton. Boston.

[4] Gerigk, M. (1999). Hazard Identification and Risk Assessment for a Ship in Critical Conditions. Joint 13th International Conference on Hydrodynamics in Ship Design, 2nd International Symposium on Ship Manoeuving, Technical University of Gdansk, Foundation for Safety of Navigation and Environment Protection, Gdansk-Ostroda.

[5] Gerigk, M. (2000). An Integrated Method for a Ship Safety Estimation for Design. Computational Model. 7th International Conference on Stability of Ships and Ocean Vehicles, Vol. A, Launceston. Tasmania, Australia.

[6] Pawlowski, M. (1995). Subdivision of Ro-Ro Ships for Enhanced Safety in the Damaged Condition. Internal Report of the Ship Research and Shipbuilding Centre (CTO), No. B-066, pages 7-26.

[7] Pawlowski, M, and A. Laskowski (1999). Extended Theoretical Model and Algorithm of Damaged Ship Behaviour. Internal Report of the Ship Research and Shipbuilding Centre (CTO), No. B-091, pages 5-26.

[8] Working Document, (1994-1998). Thematic Networks Type 1 (Implementation Phase): "DESIGN FOR SAFETY: An Integrated Approach to Safe European Ro-Ro Ferry Design (SAFER-EURORO)". European Commission, Industrial & Materials Technologies (BRITE-EURAM III).

 

 

 

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