Organic Synthesis And Biomolecular Chemistry Laboratory
!! We can create a molecule yet unknown to science !!
The focus of our lab lies in designing and synthesis of biologically active molecules of medicinal interest. Our aim is to offer a sustainable process to access complex natural and unnatural organic molecules, including glycohybrid structures, for potential application. We want to explore catalysis and reaction mechanisms in depth to extend our understanding of organic synthesis.
Our research focuses on the design and synthesis of biologically active molecules of medicinal interest .We develop sustainable strategies for accessing complex natural and unnatural organic molecules. Particular emphasis is placed on the synthesis of glycohybrid structures with potential applications. We investigate catalysis and reaction mechanisms to deepen our understanding of organic synthesis. Through innovative synthetic approaches, we aim to bridge fundamental carbohydrate chemistry with real-world applications.
We explore electro and photochemical reactions as a sustainable platform for modern organic synthesis. Our research focuses on developing efficient redox-active catalytic methods for the construction of complex molecules. Particular emphasis is placed on electrochemical glycosylation and the synthesis of glycohybrid structures. We utilize electrons as clean reagents to enable selective and environmentally conscious transformations. Our studies integrate electrochemistry, catalysis, and mechanistic understanding to uncover new reaction pathways. Through these approaches, we aim to access biologically active and medicinally relevant molecules in a sustainable manner.
Our research involves the design, synthesis, and functionalization of carbohydrate-based polymers by integrating renewable carbohydrate building blocks with advanced polymerization strategies. We aim to develop functional and responsive polymeric materials with potential applications in biomedical science, drug delivery and sustainable materials. Particular emphasis is placed on understanding the relationship between molecular structure, polymer architecture, and material properties. By combining carbohydrate chemistry, polymer synthesis, and functionalization strategies, we seek to create innovative materials with enhanced biocompatibility, sustainability, and tunable functionality. We also explore the development of smart carbohydrate-derived materials that respond to specific chemical or biological stimuli, providing opportunities for applications in controlled release, biomaterials, and next-generation functional materials.