Analysis of Ship Accidents in Turkey from 2005 to 2015

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Analysis of Ship Accidents in Turkey from 005 to 05 Firat Bolat Republic of Turkey Ministry of Transport, Maritime Affairs and Communication Harbour Master Office of İstanbul İstanbul, Turkey Abstract Ship accidents may often cause fatalities and injuries. Reduction of accidents that may occur during vessel navigation will mitigate these deaths and injuries. To do this, first of all, it is necessary to determine what these accidents are and what caused the crash. At this point, it is very significant to achieve and evaluate the marine accident statistics. In this study, ship accidents that occurred from 005 to 05 were discussed and categorized. In this way, type of accidents occurring at sea and ship types involving in these accidents were tried to present. Keywords Ship accident, accident statistics, collision, capsizing, grounding. I. INTRODUCTION Shipping industry has implemented a number of measures aimed at improving its safety level [] (Chauvin et al., 03). With these measures, the accident rate has reduced recently. Maritime traffic accidents have been rather rare events []. However, ship-induced accidents cause many material and human damages every year. The effects of accidents vary from minor injuries to fatalities and from insignificant damage to very severe damage [3]. These accidents often include grounding, collision, hitting, capsizing and various hazardous incidents and so on. These accidents and hazardous incidents may also lead to death, injuries and environmental damages such as sea pollution. In particular, the leakage resulting from the collision and hitting events of the ships carrying liquid cargo is causing serious pollution at sea. This pollution is endangering the lives of sea creatures on the spot. Determining of the reasons causing ship-originated accidents and sea events is extremely significant. Identification of sources of accidents and presenting them in meaningful way will help prevent future accidents. In this study, accidents and hazardous incidents which occurred in Turkish territorial waters from 005 to 05 were investigated. These accidents were analyzed and the factors that cause accidents have been demonstrated on a regular basis. However, accident statistics were presented according to the types of ships. In this way, it is thought that this study will be a step in order to mitigate the accidents which the ships are involved. In literature, there are many studies presenting the statistics of accidents. Reference [4] performed a review on accidents concerning fishing ships from 99 to 999 and presented some statistical data. Reference [5] analyzed 0- year tanker accidents between 997-007 years. Reference [6] investigated the collision risk of ships in Finland Gulf by describing the last 0- year accident statistics. Reference [7] studied the fatal occupational accidents in Danish vessels between 989-005 years and analyzed 4 fatalities and investigated the reason of these fatal accidents. Reference [8] presented the reasons of the occupational accidents in fishing sector in Portugal according to ages and experience level of the fishermen by analyzing 73 accidents. Reference [9] analyzed the ship fatal accidents from 99 to 005 and categorized the fatal accidents according to shipping disasters and personal accidents. Reference [0] also performed a study comparing fatal accident rates of the fishing sector with the other British occupations and industries and also analyzed the causes of the fatal fishing accidents by considering the accidents which were occurred from 996 to 005. Reference [] present the detailed results of the accidents of large oil tankers taking place between 978 and 003 and categorized the accident according to major accidents. Reference [] took the release of packaged and containerized goods into consideration and analyzed the accidents of dangerous good releases between 998 and 008. Reference [3] analyzed the accidents which were occurred in Arctic Region from 993 to 0 and applied Fuzzy Fault Tree Analysis (FFTA). Reference [4] investigated the collision and grounding accidents of the oil tankers occurred between from 998 and 00 and performed the risk assessment by using fault tree analysis (FTA). II. METHOD In this study, the accidents occurred in Turkish territorial waters from 005 to 05 were taken into consideration. In the first phase of the study, the statistics showing the accidents in Turkey were achieved and in the second phase, these statistical data were evaluated by investigating one by one. III. DISCUSSION Table shows the accidents occurred in Turkish territorial waters between 005-05 years. Accordingly, a total of 39 different types of accidents took place in Turkey between the related years. However, between the years 005-05, a total of 54 accidents and hazardous incidents occurred in Turkish territorial waters. Referring to Table, most occurring marine accident type is collision event due to incorrect maneuver that 7 times took place. Thus, collision event resulting from incorrect maneuver has been the most common type of ship accident. www.ijert.org 478

TABLE I. Accident Definitions Medical evacuation event due to breathing difficulties Hit event depending on the Drift event depending on the Capsizing event due to water uptake Fire incident due to Sea event due to water uptake Capsizing event depending on incorrect maneuver Drift event during iron scanning ACCIDENT DEFINITIONS Number of Accidents Ship Types involved in accident Oil Tanker 3 Commercial Yacht Agency Boat Commercial Yacht Tug Dry Cargo ship Machine failure event Ro-Ro Hit event due to excessive speed Aground event due to an unknown cause Collision event due to incorrect maneuver rudder locked Collision event depending on an unknown cause Capsizing event due to Collision event during iron scanning Demand for assistance depending on death event Collision event during replacing iron location Boat damage during the incorrect maneuver Capsizing event as a result of fire on board Hit event due to incorrect maneuver Collision event due to Sinking event due to Marine pollution occurring as a result of personnel fault an unknown cause Capsizing event as a result of load shift 3 7 Container Ship Container Ship / Dry Cargo Ship / Dry Cargo Ship Ferry/General Cargo Ship Inflatable Boat/ Inflatable Boat / Ferry / Ferry Ro-Ro/ Ferry Oil Tanker/ Oil Tanker Fishing Ship Fishing Ship General Cargo Ship/ General Cargo Ship General Cargo Ship/ Container Ship Oil Tanker/ Passenger Ship Small Craft /Oil Tanker Accident Definitions Falling of personnel into ship hold due to an unknown cause Impact of equipment to personnel as a result of personnel fault Breaking of the rope due to an unknown reason Number of Accidents Ship Types involved in accident Ro-Ro General Cargo Ship Search and Rescue Ship / Tug Fire event due to smoking General Cargo Ship Falling overboard of automobile due to incorrect maneuver Explosion event on board due to personnel fault Falling overboard of personnel due to imprudence Chemical Tanker Referring again to Table, the reasons of type of collision accident are based on incorrect maneuver (number of 7), unknown cause (number of ), iron scanning (number of ), replacing iron location (number of ) and event (number of ). So, a total of collision accidents occurred between 005-05 years. Figure depicts collisionoriginated accidents and their numbers. Fig.. Collision-related accidents Figure presents the causes of type of hitting accident. Accordingly, number of s, excessive speed and incorrect maneuvers occurred. So, a total of 5 hitting accidents took place between the said periods. Figure 3 shows the number of capsizing accident and also the capsizing reasons. There have been 8 capsizing accidents consisting of water uptake (3 times), incorrect maneuver (once), weather conditions ( times), fire on board (once) and load shift (once). Besides, the number of grounding accidents and the accident causes are given in Figure 4. As can be seen from Figure 4, grounding accidents consist of 3 unknown causes, rudder locked,, and 3 weather conditions. So, there have been 9 grounding accidents in Turkish territorial waters from 005 to 05. www.ijert.org 479

Between 005-05 years, total 67 vessels were involved in the accidents mentioned above. Figure 6 presents the number of accidents that the ships were involved. Accordingly, the ship type involved in the most accident numerically is dry cargo ship. Dry cargo ship was involved in 6 accidents totally. The second ship type involved in accident in number is ferry. Fig.. Hit-related accidents Fig. 6. Ship types involved in accidents and hazardous incidents Fig. 3. Capsizing-related accidents Fig. 4. Grounding-related accidents Apart from the accidents mentioned above, a number of hazardous incidents occurred between the periods 005-05. As can be seen from Figure 5, a total of 5 hazardous incidents occurred. These hazardous incidents consist of water uptake,, unknown cause and weather condition. IV. CONCLUSIONS In this study, between the years 005-05, the ship accidents occurred in Turkish territorial waters and hazardous incidents were statistically examined and the resulting data was presented in Section 3. Accordingly, it was determined that the vessel type involving in the most accidents is dry cargo ship. Besides, when looking at the main accident causes, collision was found to be the most common type of accident. The biggest reason of collision is incorrect maneuver. However, grounding ranks second in terms of incidence frequency. The biggest reasons of grounding are weather conditions and unknown causes. Capsizing ranks third in terms of incidence frequency. Water uptake is the biggest reason causing capsizing. Considering all of the accidents, marine accidents and hazardous incidents generally result from incorrect maneuver,, s, water uptake, unknown causes and. Therefore, in order to mitigate these accidents, the factors causing these accidents must be reduced. In this way, the accidents are able to be minimized. In mitigating the accidents, firstly, incorrect maneuvers should be emphasized. Mitigation of incorrect maneuvers depends on the navigation experience and talent of ship master. So, it is necessary to take some measures in reducing incorrect maneuvers. On the other hand, the navigation under rigors of the weather should be avoided. If the navigation must be performed under rigors of the weather, the navigation should be ensured safely. Besides, timely maintenance and repair of machines and availability of the staff on board who have ability to solve problems with immediate intervention are required. To avoid getting water in vessels, it is significant to take some measures. Hull plates, in particular, should be checked regularly and the plates to be changed should be replaced. Together with these measures, vessel accidents and hazardous incidents are expected to be reduced. Fig. 5. Hazrdous incident-related accidents www.ijert.org 480

REFERENCES [] C. Chauvin, S. Lardjane, G. Morel, J-P Clostermann, B. Langard, Human and organizational factors in maritime accidents: Analysis of collisions at sea using the HFACS. Accident Analysis&Prevention 59, 03, pp. 6-37. [] M. Hanninen and P. Kujala, Bayesian network modeling of Port State Control inspection findings and ship accident involvement. Expert Systems with Applications 4, 04, pp. 63-646. [3] A. Mullai, and U. Paulsson, A grounded theory model for analysis of marine accidents. Accident Analysis&Prevention 43, 0, pp. 590-603. [4] J. Wang, A. Pillay, Y.S. Kwon, A.D. Wall, and C.G. Loughran, An analysis of fishing vessel accidents. Accident Analysis&Prevention 37, 005, pp. 09-04. [5] G. Psarros, R. Skjong, and M.S. Eide, Under-reporting of maritime accidents. Accident Analysis&Prevention 4, 00, pp. 69-65. [6] P. Kujala, M. Hanninen, T. Arola, and J. Ylitalo, Analysis of the marine traffic safety in the Gulf of Finland. Reliability Engineering&System Safety 94, 009, pp. 349-357. [7] L.H. Laursen, H.L. Hansen, and O.C. Jensen, Fatal occupational accidents in Danish fishing vessels 989-005. International Journal of Injury Control and Safety Promotion 5, 008, pp. 09-7. [8] P. Antao, T. Almeida, C. Jacinto, and C.G. Soares, Causes of occupational accidents in the fishing sector in Portugal. Safety Science 46, 008, pp. 885-899. [9] S.E. Roberts, Fatal work-related accidents in UK merchant shipping from 99 to 005. Occupational Medicine 58, 008, pp. 9-37. [0] S.E. Roberts, Britain s most hazardous occupation: Commercial fishing. Accident Analysis&Prevention 4, 00, pp. 44-49. [] E. Eliopouolou, and A. Papanikolaou, Casualty analysis of large tankers. Journal of Marine Science and Technology, 007, pp. 40-50. [] J. Ellis, Analysis of accidents and incidents occurring during transport of packaged dangerous goods by sea. Safety Science 49, 0, pp. 3-37. [3] S. Kum, and B. Sahin, A root cause analysis for Arctic Marine accidents from 993 to 0. Safety Science 74, 05, pp. 06-0. [4] Ö. Uğurlu, E. Köse, U. Yıldırım, and E. Yüksekyıldız, Marine accident analysis for collision and grounding in oil tanker using FTA method. Maritime Policy&Management 4, 05, pp. 63-85. www.ijert.org 48