Risk identification for the resilience of railway engineering construction in complex mountainous areas

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ID: 329048
2026
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Abstract
Abstract To investigate risks affecting the resilience of railway engineering construction in complex mountainous areas (R-REC-CM), a risk identification model for R-REC-CM is developed. First, resilience is defined for three stages based on the definition of resilience, namely before, during, and after railway engineering construction in complex mountainous areas. Second, a risk identification framework for R-REC-CM is developed, mainly including risk-factor identification sets and models, and a cloud-model-based classification model for risk-resilience grades. Finally, using a railway construction project as a case study, the risk resilience of railway engineering construction is evaluated using the developed model, including risk-resilience assessment and risk-impact analysis of different disaster and structural types. The results indicate that the overall risk-resilience level of the railway project is good, with the station building in the pre-construction stage under geological-disaster conditions having the highest risk-resilience value and the strongest risk resistance, whereas the track exhibits poor risk resistance across different disasters. Furthermore, a railway engineering risk-resilience analysis platform and three risk-management measures are proposed, which help demonstrate the practical applicability of the theoretical model and improve the safety and reliability throughout the life cycle of railway engineering construction.
Reference Key
openalex_W7213535804 Use this key to autocite in the manuscript while using SciMatic Manuscript Manager or Thesis Manager
Authors
Journal Transportation Safety and Environment
Year 2026
DOI
10.1093/tse/tdag053
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