At the intersection of chemistry and medicine, I'm pioneering conductive hydrogels – soft materials designed to carry electricity while seamlessly interacting with biological systems. The core challenge? Developing flexible, biocompatible conductors for advanced medical devices and neural interfaces. My key discoveries in creating hydrogels that integrate with living tissue hold immense promise for improving diagnostics, drug delivery, and regenerative medicine. This research is where innovation meets impact, paving the way for technologies that truly enhance lives.
My work in peptide synthesis focuses on designing small protein-like molecules to create functional materials with unprecedented properties. We're tackling the challenge of precise molecular control to engineer materials that can self-assemble, bind specific targets, or deliver therapeutics efficiently. The most exciting breakthroughs involve crafting peptides that enable controlled drug release or form materials with novel catalytic capabilities. This fundamental research transforms simple molecules into powerful tools for innovation across health, electronics, and nanotechnology.
In my work on nanomaterials and organic chemistry, I focus on designing, synthesizing, and advancing nanomaterial-based adsorbents for water treatment applications. I tackle challenges like removing heavy metals, organic pollutants, dyes, pharmaceuticals, and pesticides from water efficiently and sustainably. My research also involves developing nanomaterial–polymer composite membranes, combining the unique properties of nanoscale materials with polymers to enhance adsorption performance and durability. By carefully controlling the synthesis and assembly of these materials, I aim to create solutions that are not only effective at the lab scale but also have the potential for real-world environmental impact.