Integration of Bayesian network with fuzzy analytical hierarchy process for determining the pipeline conditions

The evaluation of subsea pipeline conditions and the calculation of the likelihood of failures are among the important factors for effective maintenance decision‐making. Traditional qualitative methods to calculate the likelihood of failures are subjective, highly dependent on the experience and kno...

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Veröffentlicht in:Process safety progress 2022-04, Vol.41 (S1), p.S187-S196
Hauptverfasser: Sulaiman, Nurul Sa'aadah, Tan, Henry, Zardasti, Libriati, Md Noor, Norhazilan
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container_end_page S196
container_issue S1
container_start_page S187
container_title Process safety progress
container_volume 41
creator Sulaiman, Nurul Sa'aadah
Tan, Henry
Zardasti, Libriati
Md Noor, Norhazilan
description The evaluation of subsea pipeline conditions and the calculation of the likelihood of failures are among the important factors for effective maintenance decision‐making. Traditional qualitative methods to calculate the likelihood of failures are subjective, highly dependent on the experience and knowledge of the decision‐makers, and suffer data limitations. Thus, the calculated likelihood of failures may not reflect the actual value, resulting in an improper maintenance program. In this work, an analysis of subsea pipeline conditions based on a Bayesian Network was proposed to handle knowledge uncertainties and assist in decision‐making. This work aims to elucidate the conversion of experts' perceptions into a pseudo‐quantitative likelihood for conditional probability tables (CPTs) elicitation for the proposed Bayesian network. The experts' opinion was transformed into a more crisp value to be integrated with the objective data for accurate determination of the failure likelihood. The formulation to predict the likelihood of pipeline failures that relies on experts' perceptions was developed using the artificial intelligent fuzzy analytical hierarchy process (FAHP) with the decomposition method. The proposed pseudo‐quantitative formulation was established and was able to complement the existing risk‐based model, which enabled the making of more informed pipeline maintenance decisions. The approach assisted the experts in eliciting the probabilities of nodes with emphasis on generating the conditional probabilities of the nodes with multiple parents.
doi_str_mv 10.1002/prs.12353
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Traditional qualitative methods to calculate the likelihood of failures are subjective, highly dependent on the experience and knowledge of the decision‐makers, and suffer data limitations. Thus, the calculated likelihood of failures may not reflect the actual value, resulting in an improper maintenance program. In this work, an analysis of subsea pipeline conditions based on a Bayesian Network was proposed to handle knowledge uncertainties and assist in decision‐making. This work aims to elucidate the conversion of experts' perceptions into a pseudo‐quantitative likelihood for conditional probability tables (CPTs) elicitation for the proposed Bayesian network. The experts' opinion was transformed into a more crisp value to be integrated with the objective data for accurate determination of the failure likelihood. 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subjects Analytic hierarchy process
Bayesian analysis
Conditional probability
conditional probability table
Decision making
decomposition method
Failure
fuzzy analytical hierarchy process
knowledge uncertainties
Maintenance
Nodes
pseudo‐quantitative likelihood
Underwater pipelines
Underwater structures
title Integration of Bayesian network with fuzzy analytical hierarchy process for determining the pipeline conditions
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