Disputation: Mahika Luthra

Doctoral candidate Mahika Luthra at the Department of Chemistry, Faculty of Mathematics and Natural Sciences, is defending the thesis "Computational Study on the Electrochemical Reduction of CO2 using Transition Metal catalysts with Pendant Amines" for the degree of Philosophiae Doctor.

Image may contain: A woman (Mahika) is looking straight at the camera and smiling. She is wearing a dark purple shirt, standing against a grey background.

Mahika Luthra

The Disputation will be live streamed for everyone else.
The livestream will be activated 15 minutes before the Defense starts.

Trial lecture

January 26th, 10:15 AM, Auditorium 3, Chemistry building

Trial lecture title:

“Transition state theory and its limitations in light of experiments and calculations”

 

The trial lecture will be live streamed for everyone else.
The livestream will be activated 15 minutes before the trial lecture starts.

Kreeringssammendrag/Conferral summary 

I avhandlingen sin har kandidaten studert molekylære katalysatorer for CO2-reduksjon ved bruk av density functional theory. Gjennom dette arbeidet har kandidaten undersøkt hvordan variasjoner i metallisk sentralion og ligandstruktur påvirker produktselektiviteten fra CO2-reduksjon. Hun har også eksperimentert med fiksering av elektrokatalysatorer i metall-organiske rammeverk for å øke effektiviteten av CO2-omdanning.

Main research findings

In the global fight against climate change, reducing carbon dioxide emissions stands as a pressing challenge. An impactful solution involves converting CO2 into non-fossil-based chemicals, addressing rising greenhouse gas levels and creating chemical feedstock sustainably.

This study investigates molecular electrocatalysts containing pendant amines to understand their ability to change product selectivity in electrochemical CO2 reduction. Using density functional theory (DFT), the investigation examines the roles of metal centers and modifications in the ligand structure in determining the major product of CO2 reduction. Furthermore, the study evaluates integrating these molecular catalysts into metal-organic frameworks (MOFs), bridging theoretical findings with practical applications.

Ultimately, this research aims to offer essential knowledge for designing more selective molecular catalysts for the electrochemical reduction of CO2

 

Candidate contact information

LinkedIn: www.linkedin.com/in/mahika-luthra-911378128/

Email: mahika.luthra@gmail.com

Tel: +47 46343462

 

 

Published Jan. 15, 2024 1:01 PM - Last modified Jan. 15, 2024 1:01 PM