Jamatia Laboratory of Catalysis
Visible Light Photoredox Catalysis
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Photoredox catalysis is an innovative field that harnesses light to drive chemical reactions through the activation of reactants via electron transfer processes. Our research interest in this area focuses on the development of new photoredox catalysts, exploring their mechanisms, and applying them to synthesize complex organic molecules and materials. We aim to investigate the efficiency and selectivity of these reactions under various conditions, utilizing both traditional and novel light sources. Additionally, we are interested in integrating photoredox catalysis with other catalytic systems to enhance reaction pathways and expand the scope of synthetic methodologies. This research has the potential to contribute to more sustainable and environmentally friendly chemical processes.
Heterogeneous Catalysis
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Our group research interest in heterogeneous catalysis centers on the design and optimization of solid catalysts for various chemical transformations. Our focus is to explore the relationships between catalyst structure, surface properties, and catalytic activity, particularly in organic transformation reactions. Utilizing advanced characterization techniques, we seek to characterize the materials completely. Additionally, I am interested in developing novel catalyst materials, including metal nanoparticles and metal-organic frameworks, to enhance selectivity and efficiency in industrial processes. This research has significant implications for advancing green chemistry and improving the sustainability of chemical manufacturing.
3d - Transition Metal Based Homogeneous Catalysis
Our group focus in 3d-transition metal homogeneous catalysis is centered on developing new catalytic systems for selective organic transformations. We are particularly interested in exploring the unique properties of 3d-transition metals, such as their ability to facilitate complex reactions through versatile coordination chemistry. By investigating the mechanisms of these catalysts in various reaction environments, We aim to enhance their efficiency and selectivity for applications in pharmaceutical synthesis and material science. Additionally, we seek to design innovative ligand frameworks that stabilize metal centers and optimize their reactivity. This research contributes to the advancement of sustainable synthetic methodologies and the development of more efficient catalytic processes in organic chemistry.
Chemical Biology
Our research interests in chemical biology focuses on the design and development of small molecules as tools to probe cellular mechanisms, explore protein-ligand interactions, and investigate metabolic pathways. . By integrating synthetic chemistry, biochemistry, and molecular biology, I aspire to contribute to advancements in drug discovery and therapeutic strategies for various diseases.