Nanomaterials advancements: probing environmental sustainability of alumina nanofiber dispersion for Ultra High Performance Concrete

Alumina nano-fibres, incorporated into Ultra High Performance Concrete (UHPC), play a dual role by enhancing mechanical performance and improving durability under aggressive conditions, particularly through stimulated autogenous crack sealing and performance self-healing mechanisms. The superior performance of UHPC, enriched with alumina nano-fibres, is attributed to their nano-scale reinforcing effects, exerting control over the cracking process from its initiation, and their hydrophilic nature, promoting cement and binder hydration reactions. Goal of this study is to address the environmental sustainability of alumina nano-fibres through a Life Cycle Assessment (LCA) analysis. Concentrated versions of alumina nanofibers are specifically examined, employing chemical admixtures such as polycarboxylate sodium salt (PCE) for dispersion. This strategic approach intensifies intermixing and prevents gelatinization arising from the inherent hydrophilic nature of alumina nano-fibres. Through LCA analysis, the study sheds light on the environmental footprint associated with the production and application of alumina nano-fibres in UHPC, through a broad perspective contributing valuable insights into the sustainability of these materials and enabling informed decision-making for their future applications in the construction industry.

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Publication Details

Journal
Procedia Structural Integrity
Published
2025-01-01
DOI
https://doi.org/10.1016/j.prostr.2025.06.008
Primary Topic
Innovative concrete reinforcement materials
Type
article
Field-Weighted Citation Impact
0.00

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article

Nanomaterials advancements: probing environmental sustainability of alumina nanofiber dispersion for Ultra High Performance Concrete

Davide di Summa, Estefanía Cuenca, Liberato Ferrara, Nele De Belie
Procedia Structural Integrity
Innovative concrete reinforcement materials
article

Nanomaterials advancements: probing environmental sustainability of alumina nanofiber dispersion for Ultra High Performance Concrete

Davide di Summa, Estefanía Cuenca, Liberato Ferrara, Nele De Belie
article en

Abstract

Alumina nano-fibres, incorporated into Ultra High Performance Concrete (UHPC), play a dual role by enhancing mechanical performance and improving durability under aggressive conditions, particularly through stimulated autogenous crack sealing and performance self-healing mechanisms. The superior performance of UHPC, enriched with alumina nano-fibres, is attributed to their nano-scale reinforcing effects, exerting control over the cracking process from its initiation, and their hydrophilic nature, promoting cement and binder hydration reactions. Goal of this study is to address the environmental sustainability of alumina nano-fibres through a Life Cycle Assessment (LCA) analysis. Concentrated versions of alumina nanofibers are specifically examined, employing chemical admixtures such as polycarboxylate sodium salt (PCE) for dispersion. This strategic approach intensifies intermixing and prevents gelatinization arising from the inherent hydrophilic nature of alumina nano-fibres. Through LCA analysis, the study sheds light on the environmental footprint associated with the production and application of alumina nano-fibres in UHPC, through a broad perspective contributing valuable insights into the sustainability of these materials and enabling informed decision-making for their future applications in the construction industry.

Procedia Structural IntegrityVol. 67
Ghent University (BE), Politecnico di Milano (IT)
European Commission, Horizon 2020 Framework Programme, H2020 Marie Skłodowska-Curie Actions
Responsible consumption and production
Openalex Percentile: Top 79%
Innovative concrete reinforcement materials
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Nanomaterials advancements: probing environmental sustainability of alumina nanofiber dispersion for Ultra High Performance Concrete — Davide di Summa, Estefanía Cuenca, et al. · Procedia Structural Integrity (2025) | TGRS Research Map | TGRS