MOFs excel in gas storage due to their customizable pore sizes and high surface areas, facilitating efficient storage of hydrogen, methane, and other gases for energy applications.

Utilizing the tunable pore environments of MOFs, we develop cutting-edge solutions for selective gas separation, enhancing the purity of industrial gases and facilitating sustainable processes.

Our MOFs are engineered to capture and contain CO2 effectively, contributing to global efforts in reducing greenhouse gas emissions and combating climate change.

MOFs serve as highly effective catalysts with their unique structural properties, speeding up chemical reactions in manufacturing processes while reducing energy consumption.

Exploring the potential of MOFs in energy absorption, we aim to innovate in areas such as shock absorption materials and vibration damping technologies, contributing to safer and more efficient energy usage.

In crystal engineering, we delve deep into the structure-stability-property relationships of molecular crystals, examining intermolecular interactions, associated energies, and electrostatic properties to understand and predict material behaviour.

Our research focuses on designing new solid-state forms of crystalline materials, pioneering innovations in drug delivery, electronics, and environmentally friendly materials through advanced crystal engineering techniques.