
Environmental Stewardship in Civil Infrastructure: A Comprehensive Review of AI Applications in Road and Bridge Engineering
DOI:
https://doi.org/10.30564/jees.v8i6.13271Abstract
The road and bridge infrastructure systems are also among the most resource-intensive systems in the built environment, which produce massive environmental impacts on their life cycles. Civil infrastructure environmental stewardship must therefore demand decision-making methods that are no longer limited to the static analysis of sustainability, but rather to the adaptive and data-driven management of long-lived resources. Recent innovations in artificial intelligence (AI) can provide transformative potential to facilitate this transition by making predictions, optimization, and continuous monitoring in the process of planning, design, construction, operation, maintenance, and end-of-life stages. The article is a comprehensive review of AI applications that promote environmental stewardship in road and bridge engineering. The review combines the state-of-the-art approaches, which involve AI in combination with the life-cycle assessment, digital twins, sensing systems, and asset management systems to minimize greenhouse gas emissions, energy consumption, material use, waste, and ecosystem disruption. The focus is specifically on the way AI advances environmentally responsible planning and design, low-impact construction delivery, predictive and network-level maintenance approaches, and circular end-of-life approaches. The review also explores cross-cutting issues to do with the quality of data, model transferability, interpretability, governance, and equity that impact the practical efficacy of AI-based stewardship. This article forms a systematic basis for future research and implementation by categorizing the current research on environmental impact domains, life-cycle stages, and AI methods. The results show how AI can transform the infrastructure management system into a proactive, measurable, and robust environmental custodianship, as well as the requirement of interconnected systems, reliable models, and institutional preparedness.
Keywords:
Artificial Intelligence; Environmental Stewardship; Road Infrastructure; Bridge Engineering; Life-Cycle SustainabilityReferences
[1] Cervero, R., 2009. Transport infrastructure and global competitiveness: Balancing mobility and livability. The Annals of the American Academy of Political and Social Science. 626(1), 210–225.
[2] Harle, S.M., 2024. Advancements and challenges in the application of artificial intelligence in civil engineering: A comprehensive review. Asian Journal of Civil Engineering. 25(1), 1061–1078.
[3] Mohammed, M., Mohammed, A.M., Oleiwi, J.K., et al., 2025. Emerging artificial intelligence methods in civil engineering: A comprehensive review. Al-Rafidain Journal of Engineering Sciences. 280–293.
[4] Shahrivar, F., Sidiq, A., Mahmoodian, M., et al., 2025. AI-based bridge maintenance management: A comprehensive review. Artificial Intelligence Review. 58(5), 135.
[5] Bennett, N.J., Whitty, T.S., Finkbeiner, E., et al., 2018. Environmental stewardship: A conceptual review and analytical framework. Environmental Management. 61(4), 597–614.
[6] Kyriaki, E., Konstantinidou, C., Giama, E., et al., 2018. Life cycle analysis (LCA) and life cycle cost analysis (LCCA) of phase change materials (PCM) for thermal applications: A review. International Journal of Energy Research. 42(9), 3068–3077.
[7] Khan, M.W., Ali, Y., 2020. Sustainable construction: Lessons learned from life cycle assessment (LCA) and life cycle cost analysis (LCCA). Construction Innovation. 20(2), 191–207.
[8] Altaf, M., Alaloul, W.S., Musarat, M.A., et al., 2023. Life cycle cost analysis (LCCA) of construction projects: Sustainability perspective. Environment, Development and Sustainability. 25(11), 12071–12118.
[9] Heggond, S., 2025. Artificial Intelligence and Machine Learning for Smart Construction: Enhancing Real-Time Monitoring and Decision Making. Deep Science Publishing: London, UK.
[10] Xu, G., Guo, T., 2025. Advances in AI-powered civil engineering throughout the entire lifecycle. Advances in Structural Engineering. 28(9), 1515–1541.
[11] El-Abbasy, A.A.A., 2025. Artificial intelligence-driven predictive modeling in civil engineering: A comprehensive review. Journal of Umm Al-Qura University for Engineering and Architecture. 16, 1322–1345.
[12] Dhull, H., 2024. Investigating the Use of Artificial Intelligence (AI) in Civil Engineering. In Mosaic of Ideas: Multidisciplinary Reflections. CIRS Publication: London, UK. p. 95.
[13] Balahur-Dobrescu, A., Jenet, A., Hupont Torres, I., et al., 2022. Data Quality Requirements for Inclusive, Non-Biased and Trustworthy AI. Publications Office of the European Union: Luxembourg City, Luxembourg.
[14] Rane, N., 2023. Integrating leading-edge artificial intelligence (AI), internet of things (IoT), and big data technologies for smart and sustainable architecture, engineering and construction (AEC) industry: Challenges and future directions. International Journal of Data Science and Big Data Analytics. 2, 73–95.
[15] Mandava, S., 2024. Green Intelligence: Leveraging AI to Combat Climate Change and Enhance Sustainability [Master’s Thesis]. University of Colorado: Denver, CO, USA.
[16] Adewale, B.A., Ene, V.O., Ogunbayo, B.F., et al., 2024. A systematic review of the applications of AI in a sustainable building’s lifecycle. Buildings. 14(7), 2137.
[17] Islam, F.S., 2025. Trustworthy Artificial Intelligence in the Climate Transition: Mandating Life Cycle Accountability for Net-Zero Systems and Infrastructure Resilience. International Journal of Research. 12(12), 32–54.
[18] Wu, S., 2025. Application of Artificial Intelligence Techniques in Life Cycle Assessment of Structures: A Literature Review [Bachelor’s Thesis]. Aalto University: Espoo, Finland.
[19] Santos, M.R., Carvalho, L.C., 2025. AI-driven participatory environmental management: Innovations, applications, and future prospects. Journal of Environmental Management. 373, 123864.
[20] Venner, M., 2005. Maintenance quality management and environmental stewardship: Best practices in information management and decision support. Transportation Research Record. 1911(1), 3–12.
[21] Mehraban, R.A., Tsantilis, L., Riviera, P.P., et al., 2025. Comprehensive analysis of sustainability rating systems for road infrastructure. Infrastructures. 10(1), 17.
[22] Roberts, D., 2024. The role of civil engineers in environmental stewardship. American Journal of Civil, Construction and Environmental Engineering. 5(1), 12–17.
[23] Romolini, M., 2012. What is urban environmental stewardship? Constructing a practitioner-derived framework. US Department of Agriculture, Forest Service, Pacific Northwest Research Station: Washington, DC, USA.
[24] Chapin III, F.S., Carpenter, S.R., Kofinas, G.P., et al., 2010. Ecosystem stewardship: Sustainability strategies for a rapidly changing planet. Trends in Ecology & Evolution. 25(4), 241–249.
[25] Marchese, D., Reynolds, E., Bates, M.E., et al., 2018. Resilience and sustainability: Similarities and differences in environmental management applications. Science of the Total Environment. 613, 1275–1283.
[26] Teo, H.C., Lechner, A.M., Walton, G.W., et al., 2019. Environmental impacts of infrastructure development under the belt and road initiative. Environments. 6(6), 72.
[27] Arshad, H., Thaheem, M.J., Bakhtawar, B., et al., 2021. Evaluation of road infrastructure projects: A life cycle sustainability-based decision-making approach. Sustainability. 13(7), 3743.
[28] Ramesh, T., Prakash, R., Shukla, K.K., 2010. Life cycle energy analysis of buildings: An overview. Energy and Buildings. 42(10), 1592–1600.
[29] Islam, H., Jollands, M., Setunge, S., 2015. Life cycle assessment and life cycle cost implication of residential buildings—A review. Renewable and Sustainable Energy Reviews. 42, 129–140.
[30] Ogwu, M.C., Imarhiagbe, O., Ikhajiagbe, B., et al., 2024. Toward understanding the impacts of air pollution. In Sustainable Strategies for Air Pollution Mitigation: Development, Economics, and Technologies. Springer: Cham, Switzerland. pp. 3–43.
[31] Odubo, T.C., Kosoe, E.A., 2024. Sources of air pollutants: Impacts and solutions. In Air Pollutants in the Context of One Health: Fundamentals, Sources, and Impacts. Springer: Cham, Switzerland. pp. 75–121.
[32] Pang, B., Yang, P., Wang, Y., et al., 2015. Life cycle environmental impact assessment of a bridge with different strengthening schemes. The International Journal of Life Cycle Assessment. 20(9), 1300–1311.
[33] França, W.T., Barros, M.V., Salvador, R., et al., 2021. Integrating life cycle assessment and life cycle cost: A review of environmental-economic studies. The International Journal of Life Cycle Assessment. 26(2), 244–274.
[34] Digkoglou, P., Papathanasiou, J., 2025. Application of multiple criteria decision aiding in environmental policy-making processes. International Journal of Environmental Science and Technology. 22(8), 6967–6982.
[35] Xu, K., 2025. Decision-Support Frameworks for MCDA Method Selection and Emission Abatement Technology Assessment in the Maritime Sector [PhD Thesis]. University of Southampton: Southampton, UK.
[36] Firoozi, A.A., Firoozi, A.A., Maghami, M.R., 2025. Life Cycle Assessment for sustainable civil infrastructure with standardized functional units and boundaries. Materials Today Sustainability. 32, 101232.
[37] Udechukwu, L.M., 2026. Culturally Contextual Data Stewardship: A Governance Model for Global AI Systems. SSRN. 6001054.
[38] Adenuga, T., Ayobami, A.T., Mike-Olisa, U., et al., 2024. Enabling AI-driven decision-making through scalable and secure data infrastructure for enterprise transformation. International Journal of Scientific Research in Science, Engineering and Technology. 11(3), 482–510.
[39] Verhulst, S., 2025. Data Stewardship Decoded: Mapping Its Diverse Manifestations and Emerging Relevance at a Time of AI. arXiv preprint. arXiv:2502.10399.
[40] Frangopol, D.M., Dong, Y., Sabatino, S., 2019. Bridge life-cycle performance and cost: Analysis, prediction, optimisation and decision-making. In Structures and Infrastructure Systems. Routledge: London, UK. pp. 66–84.
[41] Sumi, A., Chandrasekar, K., 2025. Artificial intelligence for sustainable stewardship of Earth resources. In Data Analytics and Artificial Intelligence for Earth Resource Management. Elsevier: Amsterdam, The Netherlands. pp. 65–75.
[42] Ligozat, A.-L., Lefevre, J., Bugeau, A., et al., 2022. Unraveling the hidden environmental impacts of AI solutions for environment life cycle assessment of AI solutions. Sustainability. 14(9), 5172.
[43] Gregory, A., Spence, E., Beier, P., et al., 2021. Toward best management practices for ecological corridors. Land. 10(2), 140.
[44] Chelliah, P.R., Jayasankar, V., Agerstam, M., et al., 2023. The Power of Artificial Intelligence for the Next-Generation Oil and Gas Industry: Envisaging AI-Inspired Intelligent Energy Systems and Environments. John Wiley & Sons: Hoboken, NJ, USA.
[45] Suwondo, R., Keintjem, M., Nataadmadja, A.D., et al., 2024. Towards greener highway infrastructure: evaluating the embodied carbon and cost efficiency of rigid pavement designs. Innovative Infrastructure Solutions. 9(12), 478.
[46] Barbhuiya, S., Qureshi, T., Das, B.B., 2025. Advancing sustainable pavements: A review of low-carbon construction materials and practices. Discover Concrete and Cement. 1(1), 19.
[47] Deshmukh, S., 2024. Topology Optimization in Additive Manufacturing for Lightweight Structures: AI-Driven Design and Structural Performance in Aerospace and Automotive Applications. South Asian Research Journal of Engineering and Technology. 6(6), 205–212.
[48] Gachkar, S., Gachkar, D., García Martínez, A., et al., 2025. A Methodology Proposing AI-BIM Integration for Enhanced Environmental Impact Assessment in Building Life Cycle Analysis. In Construction, Energy, Environment and Sustainability. Springer: Singapore.
[49] Filippova, E., Hedayat, S., Ziarati, T., et al., 2025. Artificial intelligence and digital twins for bioclimatic building design: Innovations in sustainability and efficiency. Energies. 18(19), 5230.
[50] Amangeldy, B., Tasmurzayev, N., Imankulov, T., et al., 2025. AI-Powered Building Ecosystems: A Narrative Mapping Review on the Integration of Digital Twins and LLMs for Proactive Comfort, IEQ, and Energy Management. Sensors. 25(17), 5265.
[51] Mirza, S., 2006. Durability and sustainability of infrastructure—A state-of-the-art report. Canadian Journal of Civil Engineering. 33(6), 639–649.
[52] Perks, A.R., Devnani, S., Denham, R., et al., 2025. Asset management for environmental infrastructure. WIT Transactions on Ecology and the Environment. 84.
[53] Li, C., 2025. AI-Driven Governance: Enhancing Transparency and Accountability in Public Administration. Digital Society & Virtual Governance. 1(1), 1–16.
[54] Sayeed, M.A., Sarker, P.K., Miah, M.S., et al., 2024. Role of artificial intelligence (AI) in civil engineering to minimize environment pollution. World Journal of Advanced Research and Reviews. 24(3), 982–994.
[55] Lee, D.I., Park, J., Shin, M., et al., 2022. Characteristics of real-world gaseous emissions from construction machinery. Energies. 15(24), 9543.
[56] Soofastaei, A., 2025. Intelligent scheduling: How AI and advanced analytics are revolutionizing time optimization. In Mastering Time-Innovative Solutions to Complex Scheduling Problems. IntechOpen: London, UK.
[57] Odumbo, O.R., Nimma, S.Z., 2025. Leveraging artificial intelligence to maximize efficiency in supply chain process optimization. International Journal of Research Publication and Reviews. 6(1), 3035–3050.
[58] Lakhouit, A., 2025. Revolutionizing urban solid waste management with AI and IoT: A review of smart solutions for waste collection, sorting, and recycling. Results in Engineering. 25, 104018.
[59] Okafor, B.N., Onwurliri, B.J., 2025. Evaluation of environmental impact assessment compliance in public construction projects and its implications for sustainable development. Indonesian Journal of Public Administration and Policy. 1(1), 14–49.
[60] Mutawa, A., Alshaibani, A., Almatar, L.A., 2025. A Comprehensive Review of Dust Storm Detection and Prediction Techniques: Leveraging Satellite Data, Ground Observations, and Machine Learning. IEEE Access. 13, 39696.
[61] Omrany, H., Al-Obaidi, K.M., Husain, A., et al., 2023. Digital twins in the construction industry: A comprehensive review of current implementations, enabling technologies, and future directions. Sustainability. 15(14), 10908.
[62] Broo, D.G., Schooling, J., 2023. Digital twins in infrastructure: Definitions, current practices, challenges and strategies. International Journal of Construction Management. 23(7), 1254–1263.
[63] Rane, N., Choudhary, S., Rane, J., 2023. Artificial Intelligence (AI) and Internet of Things (IoT)-based sensors for monitoring and controlling in architecture, engineering, and construction: Applications, challenges, and opportunities. SSRN Electronic Journal. DOI: http://doi.org/10.2139/ssrn.4642197
[64] Simaei, E., Rahimifard, S., 2024. AI-based decision support system for enhancing end-of-life value recovery from e-wastes. International Journal of Sustainable Engineering. 17(1), 80–96.
[65] Zhao, Z., Wu, J., Li, T., et al., 2021. Challenges and opportunities of AI-enabled monitoring, diagnosis & prognosis: A review. Chinese Journal of Mechanical Engineering. 34(1), 56.
[66] Meng, S., Bai, Q., Chen, L., et al., 2023. Multiobjective optimization method for pavement segment grouping in multiyear network-level planning of maintenance and rehabilitation. Journal of Infrastructure Systems. 29(1), 04022047.
[67] Sun, C., Luo, Y., Li, J., 2018. Urban traffic infrastructure investment and air pollution: Evidence from the 83 cities in China. Journal of Cleaner Production. 172, 488–496.
[68] de Abreu, V.H.S., Santos, A.S., Monteiro, T.G.M., 2022. Climate change impacts on the road transport infrastructure: A systematic review on adaptation measures. Sustainability. 14(14), 8864.
[69] Nasr, A., Björnsson, I., Honfi, D., et al., 2021. A review of the potential impacts of climate change on the safety and performance of bridges. Sustainable and Resilient Infrastructure. 6(3–4), 192–212.
[70] Invernizzi, D.C., Locatelli, G., Velenturf, A., et al., 2020. Developing policies for the end-of-life of energy infrastructure: Coming to terms with the challenges of decommissioning. Energy Policy. 144, 111677.
[71] Wei, X., Zhou, J., 2024. Multi-Criteria Decision Analysis for Sustainable Oil and Gas Infrastructure Decommissioning: A Systematic Review of Criteria Involved in the Process. Sustainability. 16(16), 7205.
[72] Burger, J., 2008. Environmental management: Integrating ecological evaluation, remediation, restoration, natural resource damage assessment and long-term stewardship on contaminated lands. Science of the Total Environment. 400(1–3), 6–19.
[73] Hall, W., Williams, I., Smith, N., et al., 2018. Past, present and future challenges in health care priority setting: findings from an international expert survey. Journal of Health Organization and Management. 32(3), 444–462.
[74] Simpson, K.M., Porter, K., McConnell, E.S., 2013. Tool for evaluating research implementation challenges: a sense-making protocol for addressing implementation challenges in complex research settings. Implementation Science. 8(1), 2.
[75] Nwaigbo, J.C., Sanusi, A.N., Akinode, A.O., et al., 2025. Artificial Intelligence in Smart Cities: Accelerating Urban Sustainability through Intelligent Systems. Global Journal of Engineering and Technology Advances. 24(3), 51–73.
[76] al-Salim, W.L.A.S., 2025. Developing and Evaluating an Artificial Intelligent Framework for Sustainable Urban Transformation and Climate Resilience in Low-Income Cities [PhD Thesis]. University of Greater Manchester: Manchester, UK.
[77] Amanatidis, P., Lyratzis, E., Angelopoulos, V., et al., 2025. Intelligent Water Management Through Edge-Enabled IoT, AI, and Big Data Technologies. IoT. 7(1), 5.
[78] Tumminello, M.L., Macioszek, E., Granà, A., 2025. Emerging Cutting-Edge Technologies and Applications for Safer, Sustainable, and Intelligent Road Systems in Smart Cities: A Review. Applied Sciences. 15(21), 11583.
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