The project explored improving translucent concrete by incorporating GNMPs to increase its compressive strength. Traditional methods of achieving translucency compromised concrete's structural integrity. However, by introducing graphite nano/micro platelets, the research found a solution that not only maintained but improved compressive strength
Objectives
1) To develop translucent concrete using 3mm optical fiber.
2) To investigate the effect of graphite nano/micro platelets (GNMPs) on the properties of translucent concrete.
3) To create sustainable and environmentally beneficial concrete.
Socio-Economic Benefit
• Improved indoor lighting conditions in buildings with translucent concrete contribute to occupant health and well-being. Natural light has been linked to increased productivity, mood enhancement, and better sleep quality.
• Translucent concrete creates aesthetically pleasing and comfortable indoor environments, enhancing the quality of life for residents, workers, and visitors. This fosters community well-being and social cohesion.
• Government buildings, libraries, and educational institutions benefit from improved lighting conditions translucent concrete provides. This enhances access to education, culture, and public services for all citizens, promoting social equity and inclusivity.
Methodologies
The methodology is the same as that of conventional concrete with one exception of Mould
Materials
Mix Proportions
Mix Design
Specialized Wooden Moulds
Preparation and Casting of concrete
Testing
Outcome
The Final Year Research Project (FYP) aimed to develop translucent concrete using 3mm optical fibers and investigate the impact of graphite nano/micro platelets (GNMPs) on its properties to create a sustainable concrete solution. Lux meter tests revealed a significant increase in room brightness by 25% to 29% in the controlled room, indicating successful light transmittance. In terms of mechanical behavior, compression tests demonstrated that incorporating GNMPs led to improvements in compressive strength over time, with the CFG0.5 mix achieving a peak strength of 31 MPa at 28 days, showing promise for enhanced durability and performance in real-world applications.
