Link To Latest Report : Coming Soon.
Background :
The integration of Basilisk self-healing concrete in structural applications, such as bridge construction, has the potential to revolutionize the industry. By leveraging the self-healing properties of this innovative material, bridge structures can potentially extend their lifespan, reduce maintenance costs, and enhance overall durability. This is particularly relevant in the context of accelerated bridge construction (ABC), where rapid construction and minimal disruption to traffic are paramount. Basilisk self-healing concrete can help mitigate the risks associated with accelerated construction, such as early-age cracking and damage, by autonomously repairing micro-cracks and restoring structural integrity. By embracing this cutting-edge technology, the bridge construction industry can move towards more sustainable, resilient, and cost-effective infrastructure solutions. to reduced durability and increased maintenance costs. Recent advances in biomimetic materials have inspired the development of self-healing concrete, which can autonomously repair cracks and restore structural integrity. This project aims to investigate the properties and behavior of Basilisk self-healing concrete, a novel biomimetic material inspired by the self-healing properties of basilisk lizards.
Objectives :
Through this research project several material testing will be conducted on in order to examine the feasibility of the material for different structural applications. FIU has conducted extensive material testing on different materials such as NSC, high strength concrete, UHPC and others to examine the rheology behavior, mechanical properties, and durability of each material. Since Basilisk Self-healing Concrete is presented as alternative material for some structural application, same tests will be applicable to perform material characterization.
Scope :
Task 1 – Literature Review.
A comprehensive literature review will be conducted on a curated selection of peer-reviewed articles, conference proceedings, and technical reports to synthesize the current state of knowledge on self-healing concrete, with a focus on its composition, properties, and applications in infrastructure repair and rehabilitation.
Task 2 – Material Test.
Several tests (as proposed below) will be performed to test the material rheology, mechanical and durability properties.
Task 3 – Variability Study.
A comparative research variability study will be conducted to investigate the mechanical and durability properties of Basilisk self-healing concrete, with a focus on comparing its performance to that of traditional normal concrete and Ultra-High Performance Concrete (UHPC), in order to quantify the benefits and limitations of the self-healing technology.
Task 4 – Final Deliverables.
The final deliverables will include a comprehensive research final report, guidelines and recommendations, material specifications, testing and evaluation Protocols, cost-benefit analysis report, case studies and demonstration projects, patent applications and intellectual property protection, research publications and conference presentations, and education and training materials.
Research Team:
Principal Investigator : Ankitha Arvan, Ph.D.