My research focuses on the synthesis of atomically precise metal nanoclusters and their applications in biosensing and catalysis.

Hobby: Playing Cricket, football, table tennis, exploring new places, trekking etc. 

I pursue the rational design of nanohybrid catalysts by integrating atomically precise metal nanoclusters—exhibiting molecule‑like electronic structure and tunable light harvesting—with engineered supports. By systematically controlling composition, ligand environment, charge state, core structure, and interfacial coupling at the atomic scale, I aim to optimize charge separation, interfacial electron transfer, and active site exposure. My research advances mechanistic understanding and stability engineering to develop durable, high‑efficiency systems for heterogeneous catalysis, establishing clear structure–activity relationships and sustainable design principles.

My research revolves around the design and development of atomically precise  nanoclusters and its effective hybrids, aiming to replicate and augment biological functions at the nanoscale. I explore their applications in catalysis, sensing, and biomedical systems, contributing to the advancement of functional nanomaterials with high efficiency and selectivity.

I am interested in designing multifunctional nanobiomaterials for theranostic applications, combining delivery, image, and diagnose in a single platform. My work focuses on developing stimuli-responsive nanocarriers that are biocompatible, target-specific, and effective in treating complex diseases.

My research interest is currently focused on developing hybrid materials for energy storage device applications, specifically supercapacitors.

My research encompasses designing affordable healthcare solutions using innovative functional nanomaterials. I am primarily interested in developing microfluidic platforms for early disease diagnosis through various physical, chemical and biological sensing platforms.

My research focuses on engineering Li-based electrolyte additives for high-voltage LMO and LNMO spinel cathodes, aiming to stabilize the cathode–electrolyte interface through CEI optimization. I employ a hybrid approach combining electrochemical experiments, surface analysis, and AI-driven modeling to predict interphase behavior and enhance long-term battery performance.

My research interests lie in Atomically Precise Nanomaterials.

My research interest lies in Nanomaterial based Devices.