Investigating doping strategies and polymer processing techniques to enhance the thermoelectric properties of organic materials.
Thermoelectric devices, designed to harness heat dissipated from various sources, are gaining recognition for electricity generation. Our exploration is rooted in the intriguing field of organic thermoelectrics, where we concentrate on probing doping strategies and polymer processing techniques. The ultimate objective is to enhance the thermoelectric properties of organic materials, unlocking their full potential for converting heat into electrical energy. Through meticulous investigations, our goal is to decipher the impact of diverse doping approaches, finely tuning the electronic structure of materials to optimize their performance. Simultaneously, we delve into innovative polymer processing techniques, tailoring materials for specific applications to ensure not only efficiency but also practicality in real-world scenarios.
This interdisciplinary pursuit not only deepens our understanding of organic thermoelectrics but also holds promise for sustainable energy harvesting and utilization in the near future. Despite the potential, market availability of thermoelectric materials faces challenges. In the OMEGA Lab, our research revolves around comprehending electronic and mechanical properties, improving performance, stability, and processability. Our aim is to adapt these materials for high-throughput deposition methods, such as inkjet or 3D printing.
Within our OMEGA lab, our focus is directed towards developing cost-effective, scalable p- and n-type organic and hybrid thermoelectric materials. This focus is tailored to achieve high performance while enabling low-temperature processing, ensuring a comprehensive approach to advancing the field.