Increasing global warming has triggered an urgent need for the reduction of greenhouse gas emissions and finding green energy alternatives. Hydrogen as an energy carrier is one of the most promising candidates to move towards realizing green energy systems. Our research focuses on the development of an economically viable and sustainable energy solution, with hydrogen as the energy carrier. Ongoing research is in developing efficient thermochemical cycles for hydrogen production and hydrogen fuel cells for electricity generation. 

Currently, we are actively collaborating with ONGC to implement the Iodine-Sulfur thermochemical cycle for hydrogen production. . This collaborative venture aims not only to refine the hydrogen production process but also to forge a path towards a greener, more sustainable energy landscape.

We strive towards designing and understanding new chemistries for performance enhancement of supercapacitors and batteries. This would pioneer scalable technologies that accelerate the evolution of next-generation energy storage systems.

Our research revolves around developing effective and efficient nanofibrous materials with tuneable architectures, good stability and properties tailored for specific applications. These materials are utilized and studied as electrodes for developing cost-effective and high-performance energy storage devices, particularly supercapacitors and batteries.