Dr. Mallick holds the post of Assistant Professor in the Department of Chemistry. He completed his Ph.D. in 2007 at IIT Bombay, India with Prof. Nand Kishore. Then, he moved to Seoul National University (SNU), Republic of Korea and worked with Prof. Sa-Ouk Kang as a KB-21 postdoctoral researcher. He joined the Department of Chemistry, Ravenshaw faculty in 2010. He has 11 years of teaching and 14 years of research experience. He has published in international peer review journals and written edited book chapters. He was awarded the prestigious Raman Postdoctoral Fellowship in 2016 by UGC, Govt. of India to conduct advance research in the University of Iowa, USA. He is a trained biophysical chemist with expertise in protein structure and functional nanoparticles research. His current research group is interested to unravel the complexity of proteins involved in antibiotics resistance, and the nano-bio interface chemistry of biogenic/engineered nanoparticles to facilitate their biomedical applications.
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The treatment of microbial infection and cancer has suffered greatly in the present century of pathogenic dominance. This prevailing situation has become a challenge to the active medical partitioners and to the scientific community. Thus, our long-term goal is to understand the mode/mechanism of antibiotics resistance both in bacteria/cancer cells and identify naturally available drugs/antibiotics or develop biogenic/engineered nanoparticles to support/modify or replace the conventional used antibiotics that has led to cause resistance.
The emergence/existence of antibiotic resistance bacteria has evidenced to be associated with the overexpression of efflux pumps. These efflux pumps are either membrane or membrane associated proteins that have mediated antibiotic resistance through efflux mechanism. Thus, understanding the mechanism of antibiotics binding of these proteins and their efflux mechanism through the membrane is a real challenge, but in long run, it will help to improve the present condition of antibiotic resistance. Our approached is to purify membrane proteins in active state, and explore the antibiotics binding dynamics through biophysical techniques and substernal it through bioinformatic analysis.
The protective effects of naturally present phytosterols have been studied in various models and approaches. However, the exact mechanism of phytosterol action is still unknown. In our approach, we have identified different sources for extraction and purification of phytosterol of interest and test their efficacy as an anticancer agent against breast cancer cells.
The rapid growth in nanotechnology has become the likelihood of engineered nanomaterials that coming into environmental and human contact. Nanoparticles interacting with cells membranes, DNA, proteins and organelles establish a series of nano-bio interfaces. The study in our group aimed to evaluate the antimicrobial propensity of biogenic/synthesized NPs with significant anti-microbial activity. This will established potential use of NPs in biomedical and pharmaceutical sciences over the conventional antibiotics