Emerging Technologies in Cementitious Material Design: Autonomous Healing and Durability Enhancement Mechanisms
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Parveen Kumar
Abstract
Cementitious materials provide the basis of most modern construction but are plagued with problems associated with durability, cracking and maintenance which could ultimately hinder the long-term performance and sustainability of construction structures. These problems can rarely be solved with conventional repair methods, and that is why new strategies for increasing the durability of these materials are required. The current innovational trends in various self-healingself-healing techniques including bacterial induced calcite precipitation, encapsulated healing agents as well as crystalline admixtures are evident solutions to the above challenges. These techniques are used to provide structure repair, seepage control, and extend the durability of cementitious structures up to several generations from the time of treatment without seeing or needing repairs again.
This review systematically discusses the most recent developments of self-healingself-healing systems with particular emphasis on their working principles, efficiency, and real-world usability. Self-healing strategies examined include bacterial autonomic systems that utilize microbial behaviour to fill the crack, encapsulation methods for using the crack to release the agent, and the use of nanotechnology for improvement in self-healing efficacy. This enables comparative analysis of these technologies side by favouring their duration enhancement capability environmental sustainability and scalability for industrial application aspects among others.
The results prove the generation shift of cementitious materials leading to self-healingself-healing and sustainable structures. However, practical difficulties including the stability of the healing agents and the cost-effectiveness of large-scale installation are complex issues of concern. It is therefore important to approach such issues through a multi-disciplinary research and development efforts in order to scale up the use of autonomous healing technologies in the construction industry. Potential future enhancements include the real-time monitoring of artificial intelligence and the Internet 34of Things and designing additional-agent structures using a combination of those powerful healing techniques in order to acquire better results.
Abstract
Cementitious materials provide the basis of most modern construction but are plagued with problems associated with durability, cracking and maintenance which could ultimately hinder the long-term performance and sustainability of construction structures. These problems can rarely be solved with conventional repair methods, and that is why new strategies for increasing the durability of these materials are required. The current innovational trends in various self-healingself-healing techniques including bacterial induced calcite precipitation, encapsulated healing agents as well as crystalline admixtures are evident solutions to the above challenges. These techniques are used to provide structure repair, seepage control, and extend the durability of cementitious structures up to several generations from the time of treatment without seeing or needing repairs again.
This review systematically discusses the most recent developments of self-healingself-healing systems with particular emphasis on their working principles, efficiency, and real-world usability. Self-healing strategies examined include bacterial autonomic systems that utilize microbial behaviour to fill the crack, encapsulation methods for using the crack to release the agent, and the use of nanotechnology for improvement in self-healing efficacy. This enables comparative analysis of these technologies side by favouring their duration enhancement capability environmental sustainability and scalability for industrial application aspects among others.
The results prove the generation shift of cementitious materials leading to self-healingself-healing and sustainable structures. However, practical difficulties including the stability of the healing agents and the cost-effectiveness of large-scale installation are complex issues of concern. It is therefore important to approach such issues through a multi-disciplinary research and development efforts in order to scale up the use of autonomous healing technologies in the construction industry. Potential future enhancements include the real-time monitoring of artificial intelligence and the Internet 34of Things and designing additional-agent structures using a combination of those powerful healing techniques in order to acquire better results.
Kapitel in diesem Buch
- Frontmatter I
- Preface V
- Acknowledgments
- Contents XI
- Smart Surfaces and Coatings: An Innovative Approach 1
- Emerging Technologies in Cementitious Material Design: Autonomous Healing and Durability Enhancement Mechanisms 33
- A Study on the Strength and Stiffness of Shape Memory Alloy-Reinforced Structural Composites 63
- Modelling Techniques to Analyse the Functionality of Metallic Glass Alloys as Biomedical Implants: A Mini-review 75
- Numerical Modelling of URM Piers of Various Bond Patterns 91
- Sustainability and Durability Synergy: Self-Healing Concrete in Ultra-High-Rise Structures 101
- Experimental Investigations on Metallic Current Collectors and on the Performance of PDMFC 117
- In-Plane Dynamic Crushing Behavior of Hierarchical Honeycomb Sandwich Panel Under Blast Loading: A Finite Element Study 127
- Utilizing the U-Net Image Machine Learning Segmentation Model for Automated Analysis of Grain Sizes in Metallographic Microstructures 141
- Advancements in Banana Fiber-Reinforced Composites: Mechanical Properties, Sustainability, and Scientometric Analysis 151
- Exploring the Applications of Smart Materials in the Medical and Healthcare Sectors 173
- Advancements in 3D Printing of Composite Materials: Challenges and Prospects 193
- Colloidal Formulation and Robocasting of Silicon Nitride Scaffolds with Tailored TPMS Structures 209
- List of Contributors
- Index 233
Kapitel in diesem Buch
- Frontmatter I
- Preface V
- Acknowledgments
- Contents XI
- Smart Surfaces and Coatings: An Innovative Approach 1
- Emerging Technologies in Cementitious Material Design: Autonomous Healing and Durability Enhancement Mechanisms 33
- A Study on the Strength and Stiffness of Shape Memory Alloy-Reinforced Structural Composites 63
- Modelling Techniques to Analyse the Functionality of Metallic Glass Alloys as Biomedical Implants: A Mini-review 75
- Numerical Modelling of URM Piers of Various Bond Patterns 91
- Sustainability and Durability Synergy: Self-Healing Concrete in Ultra-High-Rise Structures 101
- Experimental Investigations on Metallic Current Collectors and on the Performance of PDMFC 117
- In-Plane Dynamic Crushing Behavior of Hierarchical Honeycomb Sandwich Panel Under Blast Loading: A Finite Element Study 127
- Utilizing the U-Net Image Machine Learning Segmentation Model for Automated Analysis of Grain Sizes in Metallographic Microstructures 141
- Advancements in Banana Fiber-Reinforced Composites: Mechanical Properties, Sustainability, and Scientometric Analysis 151
- Exploring the Applications of Smart Materials in the Medical and Healthcare Sectors 173
- Advancements in 3D Printing of Composite Materials: Challenges and Prospects 193
- Colloidal Formulation and Robocasting of Silicon Nitride Scaffolds with Tailored TPMS Structures 209
- List of Contributors
- Index 233
