Case Study of Enhanced HRDIP Pipeline Design and Construction for Fault Crossing Location

The hazard-resilient joint was developed in 1974 and has since been continuously improved. This joint has been widely adopted as a safety measure for faults, earthquakes, and landslides, because hazard-resilient joint pipelines can absorb large ground displacements due to the joint movements (expansion, contraction, and deflection) and the function of the joint locking system. However, designing a suitable hazard-resilient pipeline for fault displacement requires technical skills. This study proposes a design method for a water pipeline that is resistant to fault displacement by incorporating a hazard-resilient ductile iron pipe pipeline. A case study regarding hazard-resilient pipeline safety evaluation using the finite element method is conducted to assess the design of a hazard-resilient pipeline. Moreover, the assembly time measurements of the joints at an actual site are presented. The obtained measurement results can shed light on the ease of hazard-resilient joint assembly and the estimated assembly cost.

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Publication Details

Published
2024-08-30
DOI
https://doi.org/10.1061/9780784485569.012
Primary Topic
Geotechnical Engineering and Underground Structures
Type
article
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article

Case Study of Enhanced HRDIP Pipeline Design and Construction for Fault Crossing Location

Takaaki Kagawa, Takeshi Hara, Shogo Kaneko
Geotechnical Engineering and Underground Structures
article

Case Study of Enhanced HRDIP Pipeline Design and Construction for Fault Crossing Location

Takaaki Kagawa, Takeshi Hara, Shogo Kaneko
article en

Abstract

The hazard-resilient joint was developed in 1974 and has since been continuously improved. This joint has been widely adopted as a safety measure for faults, earthquakes, and landslides, because hazard-resilient joint pipelines can absorb large ground displacements due to the joint movements (expansion, contraction, and deflection) and the function of the joint locking system. However, designing a suitable hazard-resilient pipeline for fault displacement requires technical skills. This study proposes a design method for a water pipeline that is resistant to fault displacement by incorporating a hazard-resilient ductile iron pipe pipeline. A case study regarding hazard-resilient pipeline safety evaluation using the finite element method is conducted to assess the design of a hazard-resilient pipeline. Moreover, the assembly time measurements of the joints at an actual site are presented. The obtained measurement results can shed light on the ease of hazard-resilient joint assembly and the estimated assembly cost.

Kubota (Japan) (JP)
Openalex Percentile: Top 84%
Geotechnical Engineering and Underground Structures
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