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Sustainability and Economic Viability of Self-healing Concrete Containing Super Absorbent Polymers
Recent studies highlighted the need to investigate the sustainability of innovative cement-based composites. In this regard, some works focused their attention on the use of Super Absorbent Polymers (SAPs) blended into the concrete matrix also employed to promote the autogenous healing, which can result into extended durability. In this study the Life Cycle Assessment (LCA) methodology takes into account the impacts associated to the whole service life of a structure. Thus, the eco-profile of a wall made up of concrete containing SAPs, was compared to the one of a reference wall without those additions. Four scenarios were considered to estimate the frequency of the repairing activities needed because of the chloride induced corrosion. Two corrosion models were adopted: a uniform one for scenarios 1 and 2, with a service life of 50 and 100 years respectively and the hemispherical pit model, for scenarios 3 and 4 with 50 and 100 years of service life as well. Additionally, a Life Cycle Cost (LCC) analysis was developed to investigate the overall costs. The results highlight the better performances for SAP-containing concrete with a reduction up to 11% for the overall costs and up to 55% for the environmental burdens.
Sustainability and Economic Viability of Self-healing Concrete Containing Super Absorbent Polymers
Recent studies highlighted the need to investigate the sustainability of innovative cement-based composites. In this regard, some works focused their attention on the use of Super Absorbent Polymers (SAPs) blended into the concrete matrix also employed to promote the autogenous healing, which can result into extended durability. In this study the Life Cycle Assessment (LCA) methodology takes into account the impacts associated to the whole service life of a structure. Thus, the eco-profile of a wall made up of concrete containing SAPs, was compared to the one of a reference wall without those additions. Four scenarios were considered to estimate the frequency of the repairing activities needed because of the chloride induced corrosion. Two corrosion models were adopted: a uniform one for scenarios 1 and 2, with a service life of 50 and 100 years respectively and the hemispherical pit model, for scenarios 3 and 4 with 50 and 100 years of service life as well. Additionally, a Life Cycle Cost (LCC) analysis was developed to investigate the overall costs. The results highlight the better performances for SAP-containing concrete with a reduction up to 11% for the overall costs and up to 55% for the environmental burdens.
Sustainability and Economic Viability of Self-healing Concrete Containing Super Absorbent Polymers
RILEM Bookseries
Escalante-Garcia, J. Ivan (editor) / Castro Borges, Pedro (editor) / Duran-Herrera, Alejandro (editor) / di Summa, Davide (author) / Snoeck, Didier (author) / Filho, José Roberto Tenório (author) / Van den Heede, Philip (author) / Van Vlierberghe, Sandra (author) / De Belie, Nele (author) / Ferrara, Liberato (author)
RILEM Annual Week ; 2021 ; Merida, Mexico
Proceedings of the 75th RILEM Annual Week 2021 ; Chapter: 37 ; 335-343
RILEM Bookseries ; 40
2023-03-11
9 pages
Article/Chapter (Book)
Electronic Resource
English
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