Assistant Professor
Synthesis of novel organic-inorganic hybrid metal phosphonates for energy application.
Designing materials to increase the energy density of supercapacitors, fabrication of flexible and miniaturized devices, materials for multivalent batteries
Developing high-performance materials for hydrogen and oxygen evolution reactions and nitrogen-to-ammonia conversion with high Faradaic efficiency.
Synthesis of hybrid porous materials with their structural and surface properties investigation using different characterization and spectroscopic methods.
Electrochemical measurements for evaluating batteries, supercapacitors, and electrocatalysts. These facilities enable the investigation of charge-storage mechanisms, ion transport, charge-transfer kinetics, and electrochemical stability.
Electrocatalytic performance can be evaluated using three-electrode systems to study hydrogen evolution reaction (HER), oxygen evolution reaction (OER), and alternative anodic oxidation reactions. These measurements allow assessment of overpotential, Tafel kinetics, Faradaic efficiency, and durability of the electrode materials.
