Our groundbreaking series of research articles discusses the potential of administering gaseous ozone for infected dermal wounds as a promising alternative. With the burgeoning antibiotic resistance, it's vital to explore other alternatives to treat chronic infectious wounds. Our comprehensive study gives evidence in terms of safety and efficacy for potential application of gaseous ozone in-adjunct with antibiotics to combat such complications
Materials Science and Surface Engineering
My work in materials science centers on the rational design and modification of functional surfaces and thin films for biointegrated systems.I focus on plasma assisted deposition, nanocomposite coatings, laser surface engineering, and thin film processing to tailor interfacial properties such as antimicrobial activity, electrochemical stability, and optical sensing performance. The objective is to create robust material platforms that maintain performance under physiological and operational stress while remaining compatible with scalable manufacturing.
Our team has developed a flexible polymer composite microneedle array capable of overcoming the physicochemical barriers posed by bacterial biofilms in infectious wounds. This innovative technology enables the targeted delivery of bactericidal agents deep into the tissues, effectively inhibiting bacterial virulence factors.
Our series of investigations highlights a novel direction in accessing hard-to-reach regions of the GI tract using passive, untethered sampling capsules. With the increasing need for noninvasive tools to study host-microbe interactions in situ, this platform provides a compelling method to recover viable microorganisms under physiologically relevant conditions. Alongside this, our ongoing work with bioengineered Lactobacillus strains aims to develop precision probiotics tailored for inflammatory bowel disease, advancing the therapeutic potential of rationally engineered microbes in modulating mucosal immunity.
My work also includes machine learning assisted analysis of sensor signals generated from biointegrated and microfluidic platforms. I use quantitative workflows to process and interpret electrochemical and optical sensor responses, identify patterns in complex datasets, and support signal classification and performance evaluation. This complements the experimental development of wearable, ingestible, and sensing systems by strengthening data interpretation and analytical rigor.
Biosensors have a broad array of applications from detecting analytes to characterizing and studying biomolecular interactions. My work integrates electrode design, impedance analysis, and nanostructured surface modification to improve sensitivity, stability, and long term functionality of implantable systems
Development of electrochemical, optical and electronic devices using roll-to-roll manufacturing techniques such as screen printing.
Development of electrochemical and chemiresistive sensors over PDMS nanosheets tattoo sensors using physical vapour deposition techniques (DC/ECR sputtering, and thermal vapour deposition).
Skills: Physical Vapour Deposition, Material and Electrical characterization, Chemiresistive gas sensing
Development of functional metal oxide based nano composites for chemiresisitve quantification of target Volatile Organic Compounds.