SEER GROUP
RESEARCH
Research Overview
Sustainable Electrode Materials for High-performance Next-generation Batteries
Our research group is dedicated to the development of sustainable electrode materials for high-performance next-generation batteries. Recognizing the urgent need for environmentally friendly energy storage solutions, our team focuses on harnessing the potential of materials that not only enhance battery performance but also adhere to principles of sustainability. We aim to contribute to the creation of batteries with improved energy density, longevity, and safety. Additionally, our efforts extend to the integration of organic electrode materials and the incorporation of recyclable and biodegradable components, ensuring a holistic approach to environmental responsibility throughout the entire lifecycle of the batteries.
Comprehensive Characterization Techniques Beyond Conventional Boundaries
Our group is committed to advancing characterization techniques in the realm of energy storage. While cost reduction remains a primary objective, we recognize the potential for rejuvenating seemingly obsolete technologies through the application of state-of-the-art tools. We use cutting-edge multi-dimensional imaging techniques to discover previously neglected chemistry and provide insights into in-situ electrode reaction dynamics. This approach not only aims to reduce costs but also seeks to unearth the potential of past technologies through meticulous examination using advanced tools.
Fabrication and Characterization of Solid-State Batteries
We aim to advance the field of solid-state batteries through the fabrication and characterization of novel solid electrolytes for solid-state batteries. Recognizing the potential of solid-state battery technology in addressing safety concerns and enhancing energy storage capabilities, our team looks forward to pioneering new materials and techniques. We aim to contribute to the development of safer and more efficient energy storage devices. Our research involves unconventional fabrication processes and meticulous characterization approaches to understand the structural, electrochemical, and thermal properties of these electrolytes.
Modeling and Simulation of Energy Storage Devices
By leveraging first-principle models that delve into the atomic and molecular interactions within materials, we aim to gain insights into the underlying mechanisms governing energy storage processes. Our modeling approach aims to bridge the gap between microscopic details and macroscopic behavior, enabling performance optimization of the entire energy storage system. Through the integration of advanced modeling techniques, our team strives to unravel complex phenomena, inform material design, and guide the engineering of energy storage devices toward unprecedented levels of efficiency, reliability, and sustainability.