Train post-derailment behaviours and containment methods: a review
Zhao Tang, Yuwei Hu, Shuangbu Wang, Liang Ling, Jianjun Zhang, Kaiyun Wang
Train post-derailment behaviours and containment methods: a review
Railway accidents, particularly serious derailments, can lead to catastrophic consequences. Therefore, it is essential to prevent derailment escalation to reduce the likelihood of severe derailments. Train post-derailment behaviours and containment methods play a critical role in preventing derailment escalation and providing passive safety protection and accident prevention in the event of a derailment. However, despite the increasing attention on this field from academia and industry in recent years, there is a lack of systematic exploration and summarization of emerging applications and containment methods in train post-derailment research. For this reason, this paper presents a comprehensive review of existing studies on train post-derailment behaviours, encompassing various topics such as post-derailment contact–impact models, dynamic modelling and simulation techniques, and the primary factors influencing post-derailment behaviours. Significantly, this review introduces and elucidates substitute guidance mechanisms (SGMs), which serve as railway-specific passive safety protection and accident prevention measures. The various types of SGMs are depicted, and their ongoing developments and applications are explored in depth. The review additionally points out several unresolved challenges including the adverse effects of SGMs, and proposes future research directions to advance the theoretical understanding and practical application of train post-derailment behaviours and containment methods. This review seeks to be a valuable reference for railway industry professionals in preventing catastrophic derailment consequences through post-derailment containment methods.
Railway passive safety / Railway accident prevention / Post-derailment behaviours / Substitute guidance mechanisms (SGMs) / Contact–impact model
[1.] |
|
[2.] |
|
[3.] |
|
[4.] |
Federal Railroad Administration (2020) Train accident reports.
|
[5.] |
European Union Agency for Railways (2022) Report on railway safety and interoperability in the EU
|
[6.] |
International Union of Railways (2021) UIC safety report 2021—significant accidents 2020—public report
|
[7.] |
|
[8.] |
|
[9.] |
|
[10.] |
|
[11.] |
|
[12.] |
|
[13.] |
|
[14.] |
|
[15.] |
|
[16.] |
Yang T, Manos W, Johnstone B (1972) A study continuation of derailment behavior final report (phase 08 report on computer derailment study). Railroad tank car safety research and test project. Association of American Railroads, Washington DC
|
[17.] |
Yang T, Manos W, Johnstone B (1972). Dynamic analysis of train derailments. In: ASME winter annual meeting, New York
|
[18.] |
|
[19.] |
|
[20.] |
Toma EE (2000). A computer model of a train derailment. Dissertation, Queen’s University,
|
[21.] |
|
[22.] |
|
[23.] |
|
[24.] |
|
[25.] |
|
[26.] |
|
[27.] |
|
[28.] |
Nishimura K, Terumichi Y, Morimura T, Fukada J (2010) Experimental study on the vehicle safety by earthquake track excitation with 1/10 scale vehicle and roller rig. J Sys Des Dyn 4(1):226–238
|
[29.] |
|
[30.] |
|
[31.] |
|
[32.] |
Zhai W, Wang K, Liu P et al (2011) Full-scale derailing principle test stand with steering frame operating on rails, CN Patent ZL101995340B (in Chinese)
|
[33.] |
Comite Europeen de Normalisation (2008) Railway applications—crashworthiness requirements for railway vehicle bodies (EN15227 B)
|
[34.] |
|
[35.] |
|
[36.] |
|
[37.] |
|
[38.] |
|
[39.] |
|
[40.] |
|
[41.] |
|
[42.] |
|
[43.] |
Gottschalk S, Lin MC, Manocha D (1996). OBBTree: a hierarchical structure for rapid interference detection. In: Proceedings of the 23rd Annual Conference on Computer Graphics and Interactive Techniques, pp 171–180, New York
|
[44.] |
Eberly D. (2016) Dynamic collision detection using oriented bounding boxes. http://gingaminga.com/Data/Note/oriented_bounding_boxes/DynamicCollisionDetection.pdf. Accessed 2 June 2022.
|
[45.] |
|
[46.] |
Jeong D, Lyons M, Orringer O et al (2007) Equations of motion for train derailment dynamics. In: ASME 2007 Rail Transportation Division Fall Technical Conference, pp 21–27, Chicago
|
[47.] |
|
[48.] |
|
[49.] |
|
[50.] |
Kim S-W (1999) Contact dynamics and force control of flexible multi-body systems. Dissertation, McGill University.
|
[51.] |
|
[52.] |
Luo F, Liu C, Sun Z (2009) Intelligent vehicle simulation and debugging environment based on physics engine. In: 2009 International Asia Conference on Informatics in Control, Automation and Robotics, pp 329–333, Bangkok
|
[53.] |
|
[54.] |
|
[55.] |
|
[56.] |
|
[57.] |
|
[58.] |
|
[59.] |
Brabie D (2005). On the influence of rail vehicle parameters on the derailment process and its consequences. Dessertation, KTH Royal Institute of Technology,
|
[60.] |
|
[61.] |
|
[62.] |
Tanabe M, Wakui H, Sogabe M et al (2010) A combined multibody and finite element approach for dynamic interaction analysis of high-speed train and railway structure including post-derailment behavior during an earthquake. In: 9th World Congress on Computational Mechanics and 4th Asian Pacific Congress on Computational Mechanics, Sydney
|
[63.] |
|
[64.] |
|
[65.] |
|
[66.] |
|
[67.] |
Hajdin N, Mandic R, Miskovic Z (1996) Computer aided analysis of train impact on structures adjacent to the track. In: Proceedings of the Third International Conference on Computational Structures Technology, Budapest, pp 133–137
|
[68.] |
Paetsch C, Perlman AB, Jeong D (2006) Dynamic simulation of train derailments. In: ASME International Mechanical Engineering Congress and Exposition, pp 105–114, Chicago
|
[69.] |
|
[70.] |
|
[71.] |
|
[72.] |
Brabie D, Andersson E (2008). High-Speed train derailments: minimizing consequences through innovative design. In: The 8th World Congress of Railway Research (WCRR 2008), Seoul
|
[73.] |
|
[74.] |
|
[75.] |
|
[76.] |
|
[77.] |
|
[78.] |
|
[79.] |
|
[80.] |
|
[81.] |
|
/
〈 | 〉 |