Ultra-high-performance concrete for Sustainable Development Goals: A systematic review and conceptual framework

Ultra-high-performance concrete (UHPC) sits at the center of a sustainability paradox: its dense microstructure and high binder content increase initial impacts, but its strength and durability can reduce material use, extend service life, and lower maintenance. This systematic evidence-based review of UHPC research from 2021 to 2025 evaluates how cleaner UHPC technologies support low-carbon, resource-efficient infrastructure. Using a Scopus-indexed database and a PRISMA-informed screening protocol, 70 journal articles were selected and coded for mechanisms, indicators, and SDG linkages. This review focuses on three areas: (i) low-clinker and waste-based UHPC; (ii) durability, service life, and resilience in aggressive and seismic environments; and (iii) life-cycle assessment (LCA), circular-economy strategies, and digitalization. The findings show that UHPC’s sustainability relies more on functional performance, geometry-driven savings, and avoiding repairs than on volume comparisons. LCAs of UHPC demonstrate that low-clinker binders, reduced reinforcement, and longer service lives can significantly reduce life-cycle impacts when used strategically. Building on these findings, the review proposes an SDG-linked mechanism-indicator framework, a circular UHPC pathway, and a decision flowchart that position UHPC as a performance-enabled material for resilient, low-carbon infrastructure. • Maps 2021–2025 UHPC evidence to cleaner, low-carbon material strategies. • Identifies low-clinker and waste-based binders as key levers for cleaner UHPC. • Shows when dematerialization and long service life lower whole-life impacts. • Outlines circular pathways including UHPC recycling and recycled constituents. • Proposes SDG-linked decision flowchart for responsible UHPC deployment.

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Publication Details

Journal
Journal of Building Engineering
Published
2026-03-12
DOI
https://doi.org/10.1016/j.jobe.2026.115802
Primary Topic
Innovative concrete reinforcement materials
Type
article
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article

Ultra-high-performance concrete for Sustainable Development Goals: A systematic review and conceptual framework

Nadia Nassif, Emran Alotaibi, Mohamad Alhalabi
Journal of Building Engineering
Innovative concrete reinforcement materials
article

Ultra-high-performance concrete for Sustainable Development Goals: A systematic review and conceptual framework

Nadia Nassif, Emran Alotaibi, Mohamad Alhalabi
article en

Abstract

Ultra-high-performance concrete (UHPC) sits at the center of a sustainability paradox: its dense microstructure and high binder content increase initial impacts, but its strength and durability can reduce material use, extend service life, and lower maintenance. This systematic evidence-based review of UHPC research from 2021 to 2025 evaluates how cleaner UHPC technologies support low-carbon, resource-efficient infrastructure. Using a Scopus-indexed database and a PRISMA-informed screening protocol, 70 journal articles were selected and coded for mechanisms, indicators, and SDG linkages. This review focuses on three areas: (i) low-clinker and waste-based UHPC; (ii) durability, service life, and resilience in aggressive and seismic environments; and (iii) life-cycle assessment (LCA), circular-economy strategies, and digitalization. The findings show that UHPC’s sustainability relies more on functional performance, geometry-driven savings, and avoiding repairs than on volume comparisons. LCAs of UHPC demonstrate that low-clinker binders, reduced reinforcement, and longer service lives can significantly reduce life-cycle impacts when used strategically. Building on these findings, the review proposes an SDG-linked mechanism-indicator framework, a circular UHPC pathway, and a decision flowchart that position UHPC as a performance-enabled material for resilient, low-carbon infrastructure. • Maps 2021–2025 UHPC evidence to cleaner, low-carbon material strategies. • Identifies low-clinker and waste-based binders as key levers for cleaner UHPC. • Shows when dematerialization and long service life lower whole-life impacts. • Outlines circular pathways including UHPC recycling and recycled constituents. • Proposes SDG-linked decision flowchart for responsible UHPC deployment.

Journal of Building EngineeringVol. 123
Khalifa University of Science and Technology (AE), Canadian University of Dubai (AE), University of Sharjah (AE)
Industry, innovation and infrastructure
Openalex Percentile: Top 25%
Innovative concrete reinforcement materials
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