Component Criticality Analysis for Improved Ship Machinery Reliability

被引:2
|
作者
Daya, Abdullahi Abdulkarim [1 ]
Lazakis, Iraklis [1 ]
机构
[1] Univ Strathclyde, Dept Naval Architecture Ocean & Marine Engn, 100 Montrose St, Glasgow G4 0LZ, Scotland
关键词
marine diesel generator; reliability importance measures; fault identification; critical components; performance; CONDITION-BASED MAINTENANCE; NAVAL PROPULSION SYSTEMS; FAULT-TREE ANALYSIS; DECISION-MAKING; SAFETY ANALYSIS; NETWORK; INDUSTRY; FUELS; STATE;
D O I
10.3390/machines11070737
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
Redundancy in ship systems is provided to ensure operational resilience through equipment backups, which ensure system availability and offline repairs of machinery. The electric power generation system of ships provides the most utility of all systems; hence, it is provided with a good level of standby units to ensure reliable operations. Nonetheless, the occurrence of undesired blackouts is common onboard ships and portends a serious danger to ship security and safety. Therefore, understanding the contributing factors affecting system reliability through component criticality analysis is essential to ensuring a more robust maintenance and support platform for efficient ship operations. In this regard, a hybrid reliability and fault detection analysis using DFTA and ANN was conducted to establish component criticality and related fault conditions. A case study was conducted on a ship power generation system consisting of four marine diesel power generation plants onboard an Offshore Patrol Vessel (OPV). Results from the reliability analysis indicate an overall low system reliability of less than 70 percent within the first 24 of the 78 operational months. Component criticality-using reliability importance measures obtained through DFTA was used to identify all components with more than a 40 percent contribution to subsystem failure. Additionally, machine learning was used to aid the reliability analysis through feature engineering and fault identification using Artificial Neural Network classification. The ANN has identified a failure pattern threshold at about 200 kva, which can be attributed to overheating, hence establishing a link between component failure and generator performance.
引用
收藏
页数:26
相关论文
共 50 条
  • [21] Component criticality analysis to minimize soft errors risk
    Sadi, Muhammad Sheikh
    Myers, D. G.
    Sanchez, Cesar Ortega
    Jurjens, Jan
    COMPUTER SYSTEMS SCIENCE AND ENGINEERING, 2010, 25 (05): : 377 - 391
  • [22] Reliability of machinery
    Anon
    Standarty i Kachestvo, 1992, (05):
  • [23] Software component reliability analysis
    Everett, WW
    ASSET'99: 1999 IEEE SYMPOSIUM ON APPLICATION-SPECIFIC SYSTEMS AND SOFTWARE ENGINEERING & TECHNOLOGY - PROCEEDINGS, 1999, : 204 - 211
  • [24] ANALYSIS OF COMPONENT RELIABILITY DATA
    VESELY, WE
    MERREN, GT
    IEEE TRANSACTIONS ON RELIABILITY, 1976, 25 (03) : 158 - 163
  • [25] FAULT ANALYSIS OF SHIP MACHINERY USING MACHINE LEARNING TECHNIQUES
    Ak, A.
    Inceisci, F. Kaya
    INTERNATIONAL JOURNAL OF MARITIME ENGINEERING, 2022, 164 (1 A): : A69 - A80
  • [26] Reliability allocation of agricultural machinery based on improved integrated factors method
    Chen C.
    Dai M.-C.
    Zhou L.
    Liang Y.-D.
    Jilin Daxue Xuebao (Gongxueban)/Journal of Jilin University (Engineering and Technology Edition), 2024, 54 (05): : 1493 - 1500
  • [27] Criticality of component forming and tinning in a high-reliability low-volume facility
    Cusick, David L.
    Knight, William F.
    Madeiros, Bob
    Soldering and Surface Mount Technology, 1998, (29): : 19 - 25
  • [28] The criticality of component forming and tinning in a high-reliability low-volume facility
    Cusick, DL
    Knight, WF
    Madeiros, B
    SOLDERING & SURFACE MOUNT TECHNOLOGY, 1998, 10 (02) : 19 - +
  • [29] SUPERCONDUCTING MACHINERY FOR SHIP PROPULSION
    POST, AH
    NAVAL RESEARCH REVIEWS, 1976, 29 (11): : 22 - 29
  • [30] Reliability analysis of a ship hull in composite material
    Chen, NZ
    Sun, HH
    Soares, CG
    COMPOSITE STRUCTURES, 2003, 62 (01) : 59 - 66