Self-healing technologies provide the long-term resilience of concrete structures by enabling self-diagnose and self-repair of damages (aging cracks, cyclic load damages, and corrosion-induced cracks). However, self-healing technologies require special additives and materials in addition to the ones in conventional concrete. Hence, it is often perceived to have higher environmental impacts, and therefore, it is necessary to understand the same. This study is aimed to analyse the life cycle assessment (LCA) of concrete with microcapsules produced by different techniques to investigate the sustainability of these concretes. Two microcapsule techniques, namely complex coacervation and membrane emulsification, were studied at the laboratory sca...
The production of cement accounts for 5 to 7% of carbon dioxide emissions in the world, and its broa...
By incorporating self-healing agents in concrete, cracks can be healed autonomously upon occurrence....
Self-healing concrete with microencapsulated calcium nitrate was investigated. The compressive stren...
Self-healing technologies provide the long-term resilience of concrete structures by enabling self-d...
In recent years, several strategies have been investigated to improve concrete environmental and eco...
Research developments in construction materials are moving towards greener alternatives such as geop...
The use of self-healing concrete in real applications is a challenging opportunity due to its potent...
Recent studies highlighted the need to investigate the sustainability of innovative cement-based com...
A life cycle assessment (LCA) was utilised to evaluate the environmental impact of bacteria-based se...
In Europe, more than 167 million tons of concrete were produced in 2015, of which roughly 30% was us...
Identification of non-structural damage in concrete infrastructure and actuation of preventive repai...
Alternative low-carbon cementitious binders such as geopolymers are rapidly garnering scientific int...
Among the various possibilities to tackle the issue of concrete damage within its structural service...
Maintaining the health and reliability of our infrastructure is of strategic importance. The current...
The production of cement accounts for 5 to 7% of carbon dioxide emissions in the world, and its broa...
By incorporating self-healing agents in concrete, cracks can be healed autonomously upon occurrence....
Self-healing concrete with microencapsulated calcium nitrate was investigated. The compressive stren...
Self-healing technologies provide the long-term resilience of concrete structures by enabling self-d...
In recent years, several strategies have been investigated to improve concrete environmental and eco...
Research developments in construction materials are moving towards greener alternatives such as geop...
The use of self-healing concrete in real applications is a challenging opportunity due to its potent...
Recent studies highlighted the need to investigate the sustainability of innovative cement-based com...
A life cycle assessment (LCA) was utilised to evaluate the environmental impact of bacteria-based se...
In Europe, more than 167 million tons of concrete were produced in 2015, of which roughly 30% was us...
Identification of non-structural damage in concrete infrastructure and actuation of preventive repai...
Alternative low-carbon cementitious binders such as geopolymers are rapidly garnering scientific int...
Among the various possibilities to tackle the issue of concrete damage within its structural service...
Maintaining the health and reliability of our infrastructure is of strategic importance. The current...
The production of cement accounts for 5 to 7% of carbon dioxide emissions in the world, and its broa...
By incorporating self-healing agents in concrete, cracks can be healed autonomously upon occurrence....
Self-healing concrete with microencapsulated calcium nitrate was investigated. The compressive stren...