Study on lifecycle management of high-speed rail catenary system under the MDD-APC theory

Purpose The rapid development of China’s railway construction has led to an increase in data generated by the high-speed rail (HSR) catenary system. Traditional management methods struggle with challenges such as poor information sharing, disconnected business applications and insufficient intelligence throughout the lifecycle. This study aims to address these issues by applying building information modeling (BIM) technology to improve lifecycle management efficiency for HSR catenary systems. Design/methodology/approach Based on the lifecycle management needs of catenary engineering, incorporating the intelligent HSR “Model-Data Driven, Axis-Plane Coordination” philosophy, this paper constructs a BIM-based lifecycle management framework for HSR catenary engineering. Findings This study investigates the full-process lifecycle management of the catenary system across various stages of design, manufacture, construction and operation, exploring integrated BIM models and data transmission methods, along with key technologies for BIM model transmission, transformation and lightweighting. Originality/value This study establishes a lossless information circulation and transmission system for HSR catenary lifecycle management. Multi-stage applications are verified through the construction of the Chongqing–Kunming High-Speed Railway, comprehensive advancing the intelligent promotion and high-quality development of catenary engineering.

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Publication Details

Journal
Railway Sciences
Published
2025-06-11
DOI
https://doi.org/10.1108/rs-12-2024-0050
Primary Topic
Industrial Technology and Control Systems
Type
article
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article

Study on lifecycle management of high-speed rail catenary system under the MDD-APC theory

Pu Li, Xue Zhang, Rui Li, Chang Qiang Wu
Railway Sciences
Industrial Technology and Control Systems
article

Study on lifecycle management of high-speed rail catenary system under the MDD-APC theory

Pu Li, Xue Zhang, Rui Li, Chang Qiang Wu
article en

Abstract

Purpose The rapid development of China’s railway construction has led to an increase in data generated by the high-speed rail (HSR) catenary system. Traditional management methods struggle with challenges such as poor information sharing, disconnected business applications and insufficient intelligence throughout the lifecycle. This study aims to address these issues by applying building information modeling (BIM) technology to improve lifecycle management efficiency for HSR catenary systems. Design/methodology/approach Based on the lifecycle management needs of catenary engineering, incorporating the intelligent HSR “Model-Data Driven, Axis-Plane Coordination” philosophy, this paper constructs a BIM-based lifecycle management framework for HSR catenary engineering. Findings This study investigates the full-process lifecycle management of the catenary system across various stages of design, manufacture, construction and operation, exploring integrated BIM models and data transmission methods, along with key technologies for BIM model transmission, transformation and lightweighting. Originality/value This study establishes a lossless information circulation and transmission system for HSR catenary lifecycle management. Multi-stage applications are verified through the construction of the Chongqing–Kunming High-Speed Railway, comprehensive advancing the intelligent promotion and high-quality development of catenary engineering.

Railway SciencesVol. 4(3)
China Railway Corporation (CN), China Academy of Railway Sciences (CN)
Openalex Percentile: Top 85%
Industrial Technology and Control Systems
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