Graduate Research Highlights

My research focuses on understanding the process of necroptosis, a type of controlled necrosis in terms of its execution, regulation and cellular fate by using different molecular biology techniques.

I have worked on the development of tools that allow us to calculate vibrationally resolved spectra in the near-infrared region for metal complexes with Oh and D­₃ point group symmetry.

I study a novel atmospheric pressure glow discharge that is used for atomic spectroscopy.

My research primarily concerned developing direct methods of analysis and ambient ionization platforms utilizing Fourier transform mass spectrometry. Applications were broad in the fields of –omics studies, ranging from the profiling of abiotic stress responses of soybean to the investigation of animal models of disease by mass spectrometry imaging.

My research focuses in studying the potential applications and capabilities of microwave heating in diverse analytical applications. By implementing systems specifically designed for focused-microwave fields we can greatly accelerate biochemical reactions and, also, expand the capabilities of ionization in mass spectrometry.

My research focuses mainly on utilizing copper-based catalysts towards the development of enantioselective alkene difunctionalisation reactions involving radical group transfer. The ability to combine enantioselectivity with radical group transfers makes this chemistry unique and exceedingly useful for the synthesis of biologically important molecules.

My research centers around the synthesis, characterization, and reactivity of multinuclear catalysts, specifically cofacial porphyrin prisms. We use coordination-driven self-assembly to furnish complex molecular architectures through straightforward syntheses.

I study non-adiabatic quantum dynamics and develop code for Libra, and open source quantum dynamics software package.