Deterioration Models for Bridge Pavement Materials for a Life Cycle Cost Analysis

As the Framework Act on Sustainable Infrastructure Management has recently been enacted in Korea, it has become mandatory to establish a medium-and long-term plan for managing social infrastructure and evaluating the feasibility of maintenance projects. However, road agencies are experiencing proble...

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Veröffentlicht in:Sustainability 2022-09, Vol.14 (18), p.11435
Hauptverfasser: Han, Daeseok, Lee, Jin-Hyuk, Park, Ki-Tae
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creator Han, Daeseok
Lee, Jin-Hyuk
Park, Ki-Tae
description As the Framework Act on Sustainable Infrastructure Management has recently been enacted in Korea, it has become mandatory to establish a medium-and long-term plan for managing social infrastructure and evaluating the feasibility of maintenance projects. However, road agencies are experiencing problems due to a lack of deterioration models which are essential to conducting a life cycle cost analysis. Thus, this study developed deterioration models for bridge pavements as the first step to secure the power of execution of the Infrastructure Management Act. The deterioration model subdivided pavement materials into asphalt, conventional concrete, and latex-modified concrete. This study analyzed the data on diagnosis for the last 12 years in Korea by applying the Bayesian Markov Hazard Model. The average life expectancy by pavement type was analyzed as follows: 12.8 years for asphalt pavement; 23.4 years for concrete pavement; and 9.8 years for latex-modified concrete pavement. For the probabilistic life cycle cost analysis and risk management, probability distributions of life expectancy, effective range by confidence level, and Markov transition probability were presented. This study lays a foundation for deterministic and probabilistic life cycle cost analysis of bridge pavement. Future studies need to develop deterioration models standardized for all components of bridges and all types of social infrastructure.
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subjects Analysis
Asphalt
Asphalt pavements
Asset management
Bayesian analysis
Bridges
Concrete
Concrete pavements
Confidence intervals
Cost analysis
Deterioration
Distribution (Probability theory)
Economic aspects
Health aspects
Infrastructure
Infrastructure (Economics)
Latex
Laws, regulations and rules
Life cycle assessment
Life expectancy
Life span
Markov analysis
Mathematical models
Mechanical wear
Methods
Pavement deterioration
Pavement materials
Pavements
Project feasibility
Risk analysis
Risk management
Road maintenance
Statistical analysis
Sustainability
Transition probabilities
title Deterioration Models for Bridge Pavement Materials for a Life Cycle Cost Analysis
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