Research Areas
Material Chemistry
1.Metal-organic frameworks
Our lab specializes in the synthesis and characterization of metal-organic frameworks (MOFs), which are advanced materials known for their porous structure and high surface area. We explore their applications in various fields, including dye degradation, catalysis, energy storage, and adsorption. By meticulously synthesizing these frameworks and analysing their properties, we aim to develop efficient and sustainable solutions for environmental and industrial challenges. Our work contributes to the advancement of MOFs, making them viable options for practical applications that benefit society and the environment.
2.Catalysis
Our group focuses on the development of heterogeneous catalyst for diverse application. One of the important works carried out in this domain is the development of biomass derived heterogeneous catalyst for biodiesel production. As the work today is largely dependent on limited fossil fuel reserve, there is an urgent need for a sustainable and clean alternative fuel. Biodiesel, also known as FAME (Fatty acid Methyl Ester) is recognized as one such alternative and is generated by the transesterification reaction of oil or fat feedstock. The reaction being extremely slow necessitated the presence of a suitable catalyst. Our group focuses on the development of efficient, cost-effective and environment friendly biomass derived catalyst which could efficiently catalyze the transesterification process. Another area of research involves developing transition metal-based heterogeneous catalysts for organic transformations and exploring their effectiveness in degrading organic pollutants.
Organic Synthesis Chemistry
Our research group is dedicated to the synthesis and comprehensive property analysis of dendrimers and various organic compounds. We focus on creating these complex molecules and thoroughly examining their properties to determine their potential applications. This includes evaluating their medicinal properties, drug-like characteristics, and potential novel organic compounds. By synthesizing these materials and conducting detailed analyses, we aim to discover and optimize new compounds that could play a crucial role in advancing organic chemistry. Our work not only contributes to the fundamental understanding of these materials but also fosters interdisciplinary collaboration, integrating insights from chemistry, biology, and pharmacology.
Computational Chemistry
Our lab focuses on several key areas in the field of computational chemistry, specializing in both organic and porous materials. To advance the understanding and development of these materials for a wide range of applications, we employ a variety of techniques. Molecular modelling is utilized to simulate and predict the structures and behaviours of materials at a molecular level, providing valuable insights into their potential applications and performance. Molecular dynamics simulations help us analyse the geometrical and dynamic properties of porous materials, allowing us to understand their stability, flexibility, and other crucial characteristics over time. We also delve into quantum density functional theory (DFT) to study the electronic properties and behaviour of materials at a quantum mechanical level, giving us a deeper understanding of their fundamental properties. Additionally, machine learning is integrated into our research for data analysis, enabling us to handle large datasets efficiently and uncover patterns and correlations that might be missed through traditional methods.
Natural Products
Our lab focuses on extracting phytochemicals from medicinal plants and analysing their potential therapeutic benefits and underlying medicinal mechanisms. Additionally, we identify pesticides present in vegetables and study their impact on human health. By combining these efforts, we aim to enhance the understanding of natural compounds for medicinal use and address the health risks associated with pesticide exposure in food.
