I’ve always been intrigued by exploring biological questions from a physics perspective. As a multidisciplinary researcher, I focus on gaining a deeper understanding of intermolecular forces at the nanometer scale under varying physico-chemical conditions. Currently, I am enjoying my postdoctoral work at UT Southwestern Medical Center, where I am developing a novel micro-rheological tool designed to measure the material properties (such as viscoelasticity) of cellular organelles in live cells.
Previously, I held a postdoctoral position at Wageningen University and Research, where I investigated the molecular mechanisms behind the formation of biomolecular condensates in glycine-rich proteins found in tick saliva. I examined how these condensates contribute to tick adhesion.
Earlier, I completed my PhD at the Indira Gandhi Centre for Atomic Research, HBNI, focusing on stabilizing magnetic nanoparticle-based nanoemulsions with various surface-active agents, including surfactants, polymers, and nanoparticles. My research also explored how factors like aging, pH, temperature, magnetic fields, and analytes influence the stability of these nanoemulsions.
Structural Analysis of the Tick Salivary Glycine-rich Protein
Evaporation induced liquid-liquid phase separation of Glycine-rich protein from Tick Saliva
Magnetic nanoemulsion-based sensors for defect detection in ferromagnetic materials
Hidden defect Sensor in carbon steel block using Magnetic nanomulsion