Environmental Effects in Life Cycle Assessment of Machine-Vision-Driven Spall Repair Material Estimation for Sustainable Road Maintenance

Portland cement concrete is widely used in road construction due to its durability and minimal maintenance needs. However, its susceptibility to spall highlights the drawbacks of conventional repair methods, including cost inefficiencies, delays, environmental impacts, and safety risks from road clo...

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Main Authors: Junhwi Cho, Shanelle Aira Rodrigazo, Hwang-Hee Kim, Su-Jin Lee, Chan Gi Park, Jaeheum Yeon
Format: Article
Language:English
Published: MDPI AG 2025-01-01
Series:Buildings
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Online Access:https://www.mdpi.com/2075-5309/15/2/162
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author Junhwi Cho
Shanelle Aira Rodrigazo
Hwang-Hee Kim
Su-Jin Lee
Chan Gi Park
Jaeheum Yeon
author_facet Junhwi Cho
Shanelle Aira Rodrigazo
Hwang-Hee Kim
Su-Jin Lee
Chan Gi Park
Jaeheum Yeon
author_sort Junhwi Cho
collection DOAJ
description Portland cement concrete is widely used in road construction due to its durability and minimal maintenance needs. However, its susceptibility to spall highlights the drawbacks of conventional repair methods, including cost inefficiencies, delays, environmental impacts, and safety risks from road closures. To address these challenges, this study evaluated the environmental benefits of a spall detection and repair method employing artificial-intelligence-based computer vision technology. By utilizing machine vision techniques, this approach detects spall damage without road closures and automates the calculation of repair areas and material requirements through a proprietary estimation program. Environmental impact assessments were conducted using life cycle assessment across three frameworks, TRACI, ReCiPe, and ILCD, to compare this method with conventional practices. The results revealed a 79% reduction in the overall environmental impacts, including significant decreases in global warming due to shorter road closures and reduced material waste. Resource usage improved through optimized processes, and air pollution decreased, with lower emissions of smog and particulates. This study highlights the potential of machine-vision-driven repair material quantity takeoff as a more efficient and sustainable alternative. The results of this study will help institutional engineers and practitioners adopt sustainable strategies for green infrastructure repair and integrate them into various infrastructure maintenance practices to contribute to the development of sustainable urban environments.
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spelling doaj-art-1d2d5c3b29354844999584dc6d40f6c42025-01-24T13:26:00ZengMDPI AGBuildings2075-53092025-01-0115216210.3390/buildings15020162Environmental Effects in Life Cycle Assessment of Machine-Vision-Driven Spall Repair Material Estimation for Sustainable Road MaintenanceJunhwi Cho0Shanelle Aira Rodrigazo1Hwang-Hee Kim2Su-Jin Lee3Chan Gi Park4Jaeheum Yeon5Department of Regional Infrastructure Engineering, Kangwon National University, Chuncheon 24341, Republic of KoreaDepartment of Regional Infrastructure Engineering, Kangwon National University, Chuncheon 24341, Republic of KoreaResearch Center, Contecheng Co., Ltd., Yongin 16942, Republic of KoreaDepartment of Architectural Engineering, Keimyung University, Daegu 42601, Republic of KoreaDepartment of Regional Construction Engineering, Kongju National University, Yesan 32439, Republic of KoreaDepartment of Regional Infrastructure Engineering, Kangwon National University, Chuncheon 24341, Republic of KoreaPortland cement concrete is widely used in road construction due to its durability and minimal maintenance needs. However, its susceptibility to spall highlights the drawbacks of conventional repair methods, including cost inefficiencies, delays, environmental impacts, and safety risks from road closures. To address these challenges, this study evaluated the environmental benefits of a spall detection and repair method employing artificial-intelligence-based computer vision technology. By utilizing machine vision techniques, this approach detects spall damage without road closures and automates the calculation of repair areas and material requirements through a proprietary estimation program. Environmental impact assessments were conducted using life cycle assessment across three frameworks, TRACI, ReCiPe, and ILCD, to compare this method with conventional practices. The results revealed a 79% reduction in the overall environmental impacts, including significant decreases in global warming due to shorter road closures and reduced material waste. Resource usage improved through optimized processes, and air pollution decreased, with lower emissions of smog and particulates. This study highlights the potential of machine-vision-driven repair material quantity takeoff as a more efficient and sustainable alternative. The results of this study will help institutional engineers and practitioners adopt sustainable strategies for green infrastructure repair and integrate them into various infrastructure maintenance practices to contribute to the development of sustainable urban environments.https://www.mdpi.com/2075-5309/15/2/162life cycle assessmentspall repair material quantity takeoffroad maintenancesustainable infrastructureenvironmentally sustainable
spellingShingle Junhwi Cho
Shanelle Aira Rodrigazo
Hwang-Hee Kim
Su-Jin Lee
Chan Gi Park
Jaeheum Yeon
Environmental Effects in Life Cycle Assessment of Machine-Vision-Driven Spall Repair Material Estimation for Sustainable Road Maintenance
Buildings
life cycle assessment
spall repair material quantity takeoff
road maintenance
sustainable infrastructure
environmentally sustainable
title Environmental Effects in Life Cycle Assessment of Machine-Vision-Driven Spall Repair Material Estimation for Sustainable Road Maintenance
title_full Environmental Effects in Life Cycle Assessment of Machine-Vision-Driven Spall Repair Material Estimation for Sustainable Road Maintenance
title_fullStr Environmental Effects in Life Cycle Assessment of Machine-Vision-Driven Spall Repair Material Estimation for Sustainable Road Maintenance
title_full_unstemmed Environmental Effects in Life Cycle Assessment of Machine-Vision-Driven Spall Repair Material Estimation for Sustainable Road Maintenance
title_short Environmental Effects in Life Cycle Assessment of Machine-Vision-Driven Spall Repair Material Estimation for Sustainable Road Maintenance
title_sort environmental effects in life cycle assessment of machine vision driven spall repair material estimation for sustainable road maintenance
topic life cycle assessment
spall repair material quantity takeoff
road maintenance
sustainable infrastructure
environmentally sustainable
url https://www.mdpi.com/2075-5309/15/2/162
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AT hwangheekim environmentaleffectsinlifecycleassessmentofmachinevisiondrivenspallrepairmaterialestimationforsustainableroadmaintenance
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AT changipark environmentaleffectsinlifecycleassessmentofmachinevisiondrivenspallrepairmaterialestimationforsustainableroadmaintenance
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