Reliability analysis of reinforced concrete vehicle bridges columns using non-parametric Bayesian networks

•This research deals with reinforced concrete columns behavior and under live loads and seismic event.•The use of NPBN and MCS could lead to the development of a management decision tool.•The results may be used for ranking investments in maintenance actions.•This model is in agreement with the esti...

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Veröffentlicht in:Engineering structures 2019-06, Vol.188, p.178-187
Hauptverfasser: Mendoza-Lugo, Miguel Angel, Delgado-Hernández, David Joaquín, Morales-Nápoles, Oswaldo
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container_title Engineering structures
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creator Mendoza-Lugo, Miguel Angel
Delgado-Hernández, David Joaquín
Morales-Nápoles, Oswaldo
description •This research deals with reinforced concrete columns behavior and under live loads and seismic event.•The use of NPBN and MCS could lead to the development of a management decision tool.•The results may be used for ranking investments in maintenance actions.•This model is in agreement with the estimates given in reliability literature. In the bridge industry, current traffic trends have increased the likelihood of having the simultaneous presence of both extreme live loads and earthquake events. To date, their concurrent interaction has scarcely been systematically studied. Prevailing studies have investigated the isolated existence of either live loads or seismic actions. In an effort to fill this gap in the literature, a non-parametric Bayesian Network (BN) has been proposed. It is aimed at evaluating the conditional probability of failure for a reinforced concrete bridge column, subject simultaneously to the actions mentioned above. Based on actual data from a structure located in the State of Mexico, a Monte Carlo Simulation model was developed. This led to the construction of a BN with 17 variables. The set of variables included in the model can be categorized into three groups: acting loads, materials resistances and structure force-displacement behavior. Practitioners are then provided with a tool for unspecialized labor force to gather information in situ (e.g. Weight-In-Motion data and Schmidt hammer measurements), which can be included in the network, leading to an updated probability of failure. Moreover, this framework also serves as a quantitative tool for bridge column reliability assessments. Results from the theoretical model confirmed that the bridge column probability of failure was within the expected range reported in the literature. This reflects not only the appropriateness of its design but also the suitability of the proposed BN for reliability analysis.
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In the bridge industry, current traffic trends have increased the likelihood of having the simultaneous presence of both extreme live loads and earthquake events. To date, their concurrent interaction has scarcely been systematically studied. Prevailing studies have investigated the isolated existence of either live loads or seismic actions. In an effort to fill this gap in the literature, a non-parametric Bayesian Network (BN) has been proposed. It is aimed at evaluating the conditional probability of failure for a reinforced concrete bridge column, subject simultaneously to the actions mentioned above. Based on actual data from a structure located in the State of Mexico, a Monte Carlo Simulation model was developed. This led to the construction of a BN with 17 variables. The set of variables included in the model can be categorized into three groups: acting loads, materials resistances and structure force-displacement behavior. Practitioners are then provided with a tool for unspecialized labor force to gather information in situ (e.g. Weight-In-Motion data and Schmidt hammer measurements), which can be included in the network, leading to an updated probability of failure. Moreover, this framework also serves as a quantitative tool for bridge column reliability assessments. Results from the theoretical model confirmed that the bridge column probability of failure was within the expected range reported in the literature. 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In the bridge industry, current traffic trends have increased the likelihood of having the simultaneous presence of both extreme live loads and earthquake events. To date, their concurrent interaction has scarcely been systematically studied. Prevailing studies have investigated the isolated existence of either live loads or seismic actions. In an effort to fill this gap in the literature, a non-parametric Bayesian Network (BN) has been proposed. It is aimed at evaluating the conditional probability of failure for a reinforced concrete bridge column, subject simultaneously to the actions mentioned above. Based on actual data from a structure located in the State of Mexico, a Monte Carlo Simulation model was developed. This led to the construction of a BN with 17 variables. The set of variables included in the model can be categorized into three groups: acting loads, materials resistances and structure force-displacement behavior. 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subjects 00-01
99-00
Bayesian analysis
Bayesian networks
Bridge
Bridge failure
Bridge loads
Columns (structural)
Computer simulation
Concrete bridges
Conditional probability
Earthquakes
Fuel consumption
Live loads
Mathematical models
Monte Carlo simulation
Network reliability
Nonparametric statistics
Reinforced concrete
Reinforced concrete columns
Reliability
Reliability analysis
Seismic activity
Seismic design
title Reliability analysis of reinforced concrete vehicle bridges columns using non-parametric Bayesian networks
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