Our vision is to develop an overall reaction of water electrolysis and high performance supercapacitor devices to meet the needs of energy storage systems that store energy in various forms. Over time, we must shift from a fossil-fuel-based activity to one based on non-fossil fuels, and from reliance on non-renewable and depleting energy sources to renewable energy sources. The development of efficient and sustainable methods of energy conversion, distribution, and storage will be a massive challenge in the twenty-first century.. 

Our experimental strategy is to synthesize new 2D materials in a variety of forms such as transition metal dichalcogenides (MX2) group and characterize them using a variety of experimental techniques. Our research group is comprised of a group of enthusiastic researchers who are interested in low-dimensional materials, energy conversion and storage, nanoparticles, supercapacitor, battery, and catalysts, with the goal of advancing the science of high-performance and cost-effective energy storage devices. We are especially curious about the experimental and theoretical research on rechargeable batteries and supercapacitors under realistic operating conditions.. 

Our lab studies and develop novel nanomaterials for energystorage  applications. Much of our work has collaborated with the fields of chemistry, chemical engineering, material science, and data science. Particularly, we are interested in the following technologies: 

1. 2D materials

2. Recharable battery (Na-ion and Zinc ion battery)

3. Solid state battery