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44 Y.A. SOYADI, Y.A. SOYADI, Y.A. SOYADI ve Y.A. SOYADI

                    6. Conclusions

                    Human errors are one of the most common types of error. Therefore, it is of great importance to
                    reduce the human errors that will affect the safety and reliability of the vessel. Some factors can
                    contribute to human errors mainly such as exposure to high level of noise and vibration or stress
                    due to fishing. These contributions can cause the major human errors as follows:

                             Misjudge effects (wave, wind, current, speed)
                             Crew inattention
                             Failure to ascertain position
                             Watchkeeper incapacitated on bridge
                             Failure to utilize available navigation equipment

                    In this circumference, we have solutions of an educational and organizational based to reduce
                    human errors. It is obvious that training becomes very important for safety. This would require
                    a compulsory course related to the human functions such as knowledge of regulations and use of
                    equipment. Fault tree analysis can be used as a training aid and a tool for increasing awareness.
                    On the other hand, in order to reduce human errors, vibration and noise should be minimised
                    because of their significant effects.

                    The main and the auxiliary power systems in the small spaces on fishing vessel will lead to an
                    increasing number of complaints by crews considering the noise, the mechanical vibrations and
                    its effects on their health, stress levels, concentration and safety.

                    Furthermore, it is possible to reduce the probability of collision by installing a radar, collision
                    detector and redesign of the bridge equipment. The fishing industry is an outstanding target
                    group for extension of the use of this sort of instrument, but it will need to be reduced in cost.

                    The proposed analysis does not address whole fishing vessel safety. In this paper, a trial
                    application of a formal safety analysis on a generic fishing vessel was attempted. At present
                    much expert judgement and evidential reasoning from a qualitative point of view is required.
                    The data required for quantitative assessment is either unavailable or far from the ideal format.
                    This could be attributed to the organizational structure of the fishing company and/or the
                    reporting requirement of accidents and incidents.

                    References:

                    Devanney J. Formal Safety Assessment in Wonderland. Center for Tankship Excellence,
                    {USA}, Feb 2013.
                    Henley, E.J. and Kumamoto, H., Probabilistic Risk Assessment. New York: IEEE Press.,1992.
                    Health & Safety Executive, HSE, Reducing Risk, Protecting People: HSE‟s decision-making
                    process, Health & Safety Commission, 2001.
                    IEC (1994), IEC 60300-3-9: Risk analysis of technological systems, International
                    Electrotechnical Commision, Geneva, 1994.
                    IMO, Guidelines for formal safety assessment (FSA) for use in the imo rulemaking process.
                    International Maritime Organization; 2002.

GiDB|DERGi Sayı 1, 2015
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