Is this project an undergraduate, graduate, or faculty project?
Undergraduate
Project Type
group
Campus
Daytona Beach
Authors' Class Standing
Cameron Winkel, Junior Cole Walker, Junior
Lead Presenter's Name
Cameron Winkel
Lead Presenter's College
DB College of Engineering
Faculty Mentor Name
Rishikesh Srinivasaraghavan Govindarajan
Abstract
As the demand for high-performance materials in energy storage and electronic applications continues to grow, the need for durable, self-healing systems with enhanced energy storage capabilities becomes increasingly important. This project investigates the development of a self healing polymer matrix, reinforced with ferroelectric fillers such as BNT, to create a composite material that combines efficient energy storage with self-repairing functionality. The polymer matrix enables recovery from mechanical damage, while the fillers enhance its ferroelectric properties. By optimizing the interaction between these components, this research aims to develop a material that offers high energy density, long-term reliability, and reduced maintenance needs. Mechanical strength and ferroelectric performance are the key properties that will be thoroughly analyzed to assess the material’s effectiveness. The resulting composite has potential applications in energy harvesting technologies, including wearable electronics, aerospace systems, and energy-efficient devices, where both durability and high energy capacity are essential. This research contributes to the advancement of next-generation materials that integrate sustainability, resilience, and high performance across various industries.
Did this research project receive funding support (Spark, SURF, Research Abroad, Student Internal Grants, Collaborative, Climbing, or Ignite Grants) from the Office of Undergraduate Research?
No
Advancing Ferroelectric Self-Healing Composites for Enhanced Energy Storage Efficiency
As the demand for high-performance materials in energy storage and electronic applications continues to grow, the need for durable, self-healing systems with enhanced energy storage capabilities becomes increasingly important. This project investigates the development of a self healing polymer matrix, reinforced with ferroelectric fillers such as BNT, to create a composite material that combines efficient energy storage with self-repairing functionality. The polymer matrix enables recovery from mechanical damage, while the fillers enhance its ferroelectric properties. By optimizing the interaction between these components, this research aims to develop a material that offers high energy density, long-term reliability, and reduced maintenance needs. Mechanical strength and ferroelectric performance are the key properties that will be thoroughly analyzed to assess the material’s effectiveness. The resulting composite has potential applications in energy harvesting technologies, including wearable electronics, aerospace systems, and energy-efficient devices, where both durability and high energy capacity are essential. This research contributes to the advancement of next-generation materials that integrate sustainability, resilience, and high performance across various industries.