An integrated multi-hazard risk and resilience assessment framework for buried pipeline networks

Risk and resilience assessment of buried pipeline networks is essential to better understanding of how our communities will respond to natural hazards. This study presents an integrated multi-hazard risk and resilience framework for pipeline networks subjected to earthquakes and moisture-induced differential swelling in expansive soils. The framework introduces multi-hazard fragility models developed using three-dimensional finite element analyses of soil–pipe interaction and statistical methods to quantify the combined effects of both hazards. Component-level damage probabilities are integrated into a GIS-based model to evaluate system-level functionality and resilience. The framework enables identification of the most vulnerable pipeline segments, supporting resilience-informed decisions on pipe replacement and soil improvement measures. An illustrative case study of the water distribution network in Lawton, Oklahoma, demonstrates the framework’s capability to quantify multi-hazard damage and assess system performance. Results show the effectiveness of the proposed approach for supporting risk-informed mitigation planning and enhancing infrastructure resilience.

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Publication Details

Journal
Sustainable and Resilient Infrastructure
Published
2026-06-26
DOI
https://doi.org/10.1080/23789689.2026.2694844
Primary Topic
Water Systems and Optimization
Type
article
Field-Weighted Citation Impact
0.00

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article

An integrated multi-hazard risk and resilience assessment framework for buried pipeline networks

Kanthasamy K. Muraleetharan, Ali Shojaeian
Sustainable and Resilient Infrastructure
Water Systems and Optimization
article

An integrated multi-hazard risk and resilience assessment framework for buried pipeline networks

Kanthasamy K. Muraleetharan, Ali Shojaeian
article en

Abstract

Risk and resilience assessment of buried pipeline networks is essential to better understanding of how our communities will respond to natural hazards. This study presents an integrated multi-hazard risk and resilience framework for pipeline networks subjected to earthquakes and moisture-induced differential swelling in expansive soils. The framework introduces multi-hazard fragility models developed using three-dimensional finite element analyses of soil–pipe interaction and statistical methods to quantify the combined effects of both hazards. Component-level damage probabilities are integrated into a GIS-based model to evaluate system-level functionality and resilience. The framework enables identification of the most vulnerable pipeline segments, supporting resilience-informed decisions on pipe replacement and soil improvement measures. An illustrative case study of the water distribution network in Lawton, Oklahoma, demonstrates the framework’s capability to quantify multi-hazard damage and assess system performance. Results show the effectiveness of the proposed approach for supporting risk-informed mitigation planning and enhancing infrastructure resilience.

Sustainable and Resilient Infrastructure
University of Oklahoma (US)
National Science Foundation
Industry, innovation and infrastructure
Openalex Percentile: Top 11%
Water Systems and Optimization
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An integrated multi-hazard risk and resilience assessment framework for buried pipeline networks — Kanthasamy K. Muraleetharan, Ali Shojaeian · Sustainable and Resilient Infrastructure (2026) | TGRS Research Map | TGRS