Data-Driven Condition Assessment and Life Cycle Analysis Methods for Dynamically and Fatigue-Loaded Railway Infrastructure Components

Railway noise barrier constructions are subjected to high aerodynamic loads during the train passages, and the knowledge of their actual structural condition is relevant to assure safety for railway users and to create a basis for forecasting. This paper deals with deterministic and probabilistic ap...

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Main Authors: Maximilian Granzner, Alfred Strauss, Michael Reiterer, Maosen Cao, Drahomír Novák
Format: Article
Language:English
Published: MDPI AG 2023-11-01
Series:Infrastructures
Subjects:
Online Access:https://www.mdpi.com/2412-3811/8/11/162
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author Maximilian Granzner
Alfred Strauss
Michael Reiterer
Maosen Cao
Drahomír Novák
author_facet Maximilian Granzner
Alfred Strauss
Michael Reiterer
Maosen Cao
Drahomír Novák
author_sort Maximilian Granzner
collection DOAJ
description Railway noise barrier constructions are subjected to high aerodynamic loads during the train passages, and the knowledge of their actual structural condition is relevant to assure safety for railway users and to create a basis for forecasting. This paper deals with deterministic and probabilistic approaches for the condition assessment and prediction of the remaining lifetime of railway noise barriers that are embedded in a safety concept that takes into account the damage consequence classes. These approaches are combined into a holistic assessment concept, in other words, a progressive four-stage model in which the information content increases with each model stage and thus successively increases the accuracy of the determined structural conditions at the time of observation and the forecast of the remaining service life of the structure. The analytical methods used in the first stage of the developed holistic framework are based on common static calculations used in engineering practice and, together with expert knowledge and large-scale fatigue test results of noise barrier constructions, form the basis for the subsequent stages. In the second stage of the data-driven condition assessment and life cycle analysis approach, linking routines are implemented that combine the condition assessments from the visual inspections with the additional information from temporary or permanent monitoring systems with the analytical methods. With the application of numerical finite element methods for the development of a digital twin of the noise barrier in the third stage and the probabilistic approaches in the fourth stage, a maximum determination accuracy of the noise barrier condition at the time of observation and prediction accuracy of the remaining service life is achieved. The data-driven condition assessment and life cycle analysis approach enables infrastructure operators to plan their future investments more economically regarding the maintenance, retrofitting, or new construction of railway noise barriers. Ultimately, the aim is to integrate the presented four-stage holistic assessment concept into the specific maintenance and repair planning of infrastructure operators for aerodynamically loaded railway noise barrier constructions.
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spelling doaj.art-9fabd4d692b54bba894b542bb885c99a2023-11-24T14:48:22ZengMDPI AGInfrastructures2412-38112023-11-0181116210.3390/infrastructures8110162Data-Driven Condition Assessment and Life Cycle Analysis Methods for Dynamically and Fatigue-Loaded Railway Infrastructure ComponentsMaximilian Granzner0Alfred Strauss1Michael Reiterer2Maosen Cao3Drahomír Novák4Research Unit of Structural Mechanics, Institute of Structural Engineering, BOKU Wien, Gregor-Mendel-Straße 33, 1180 Vienna, AustriaResearch Unit of Structural Mechanics, Institute of Structural Engineering, BOKU Wien, Gregor-Mendel-Straße 33, 1180 Vienna, AustriaResearch Unit of Mechanics and Structural Dynamics, Institute of Structural Engineering, TU Wien, Karlsplatz 13/212-03, 1040 Vienna, AustriaInstitute of Structural Dynamics and Control, Hohai University, Nanjing 210098, ChinaInstitute of Structural Mechanics, Faculty of Civil Engineering, Brno University of Technology, 601 90 Brno, Czech RepublicRailway noise barrier constructions are subjected to high aerodynamic loads during the train passages, and the knowledge of their actual structural condition is relevant to assure safety for railway users and to create a basis for forecasting. This paper deals with deterministic and probabilistic approaches for the condition assessment and prediction of the remaining lifetime of railway noise barriers that are embedded in a safety concept that takes into account the damage consequence classes. These approaches are combined into a holistic assessment concept, in other words, a progressive four-stage model in which the information content increases with each model stage and thus successively increases the accuracy of the determined structural conditions at the time of observation and the forecast of the remaining service life of the structure. The analytical methods used in the first stage of the developed holistic framework are based on common static calculations used in engineering practice and, together with expert knowledge and large-scale fatigue test results of noise barrier constructions, form the basis for the subsequent stages. In the second stage of the data-driven condition assessment and life cycle analysis approach, linking routines are implemented that combine the condition assessments from the visual inspections with the additional information from temporary or permanent monitoring systems with the analytical methods. With the application of numerical finite element methods for the development of a digital twin of the noise barrier in the third stage and the probabilistic approaches in the fourth stage, a maximum determination accuracy of the noise barrier condition at the time of observation and prediction accuracy of the remaining service life is achieved. The data-driven condition assessment and life cycle analysis approach enables infrastructure operators to plan their future investments more economically regarding the maintenance, retrofitting, or new construction of railway noise barriers. Ultimately, the aim is to integrate the presented four-stage holistic assessment concept into the specific maintenance and repair planning of infrastructure operators for aerodynamically loaded railway noise barrier constructions.https://www.mdpi.com/2412-3811/8/11/162railway noise barrierfatiguedigital twinmonitoringcondition assessmentlifetime prediction
spellingShingle Maximilian Granzner
Alfred Strauss
Michael Reiterer
Maosen Cao
Drahomír Novák
Data-Driven Condition Assessment and Life Cycle Analysis Methods for Dynamically and Fatigue-Loaded Railway Infrastructure Components
Infrastructures
railway noise barrier
fatigue
digital twin
monitoring
condition assessment
lifetime prediction
title Data-Driven Condition Assessment and Life Cycle Analysis Methods for Dynamically and Fatigue-Loaded Railway Infrastructure Components
title_full Data-Driven Condition Assessment and Life Cycle Analysis Methods for Dynamically and Fatigue-Loaded Railway Infrastructure Components
title_fullStr Data-Driven Condition Assessment and Life Cycle Analysis Methods for Dynamically and Fatigue-Loaded Railway Infrastructure Components
title_full_unstemmed Data-Driven Condition Assessment and Life Cycle Analysis Methods for Dynamically and Fatigue-Loaded Railway Infrastructure Components
title_short Data-Driven Condition Assessment and Life Cycle Analysis Methods for Dynamically and Fatigue-Loaded Railway Infrastructure Components
title_sort data driven condition assessment and life cycle analysis methods for dynamically and fatigue loaded railway infrastructure components
topic railway noise barrier
fatigue
digital twin
monitoring
condition assessment
lifetime prediction
url https://www.mdpi.com/2412-3811/8/11/162
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AT michaelreiterer datadrivenconditionassessmentandlifecycleanalysismethodsfordynamicallyandfatigueloadedrailwayinfrastructurecomponents
AT maosencao datadrivenconditionassessmentandlifecycleanalysismethodsfordynamicallyandfatigueloadedrailwayinfrastructurecomponents
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