My research focuses on advancing materials for energy storage systems, with a particular emphasis on niobium oxide for sodium-ion batteries and similar applications.
My research explores the intersection of materials science, electrochemistry, and energy storage systems, with a particular emphasis on developing novel materials for next-generation energy storage devices. Through a multidisciplinary approach, the research aims to improve the performance, sustainability, and efficiency of energy storage technologies, primarily focusing on batteries and capacitors. The work combines computational modeling, experimental synthesis, and characterization techniques to understand the fundamental properties of materials and their behavior in real-world applications.
One of the key areas of recent focus is on the development of advanced materials for sodium-ion batteries (SIBs). These batteries have emerged as promising alternatives to lithium-ion batteries due to the abundance and low cost of sodium. A significant portion of the research is devoted to enhancing the performance of niobium oxide (Nb₂O₅) materials, which have shown remarkable potential as anode materials in sodium-ion batteries. Niobium oxide’s unique structure offers high sodium storage capacity, stability, and good cycling performance, addressing some of the key challenges associated with SIBs, such as poor energy density and limited lifespan. My work aims to optimize the synthesis of Nb₂O₅-based materials, enhancing their electrochemical properties to improve the overall efficiency and longevity of sodium-ion batteries. These advancements could play a crucial role in driving the future of sustainable and affordable energy storage technologies.
I teach courses on atomic and molecular structure (5KE165, 5KE162), thermodynamics (5KE165), molecular orbital theory and group theory (5KE195), and computational chemistry with electronic structure methods (5KE176).