First-year undergraduate at University College London with a strong interest in sustainable energy and applied chemistry. Through work experience with a synthetic fuel company and a lithium-ion battery manufacturer, I have explored catalytic fuel synthesis, battery chemistry, and the challenges of scaling laboratory chemistry into industrial energy technologies. I am particularly interested in catalysis, electrochemistry, and the development of low-carbon energy systems.
Work History
Chemistry Work Experience
Zero Petroleum – Synthetic Fuel Company
Worked with the chemistry team on research related to synthetic fuel production from captured CO₂ and hydrogen, focusing on catalytic reactions used to produce syngas.
Conducted literature research on the Reverse Water Gas Shift (RWGS) reaction, which converts CO₂ and H₂ into CO for downstream fuel synthesis.
Reviewed research on Fe-based catalysts operating at ~600 ºC, analysing catalytic activity, stability, and reaction mechanisms.
Designed a conceptual fixed-bed reactor for RWGS, selecting catalyst systems and operating conditions based on research findings.
Assisted laboratory work including catalyst preparation, reactor loading, and experimental monitoring.
Processed experimental data in Excel, analysing reaction outputs and conversion rates.
Observed analytical techniques including GC–MS used to determine fuel composition.
Learned how the full process integrates CO₂ capture, hydrogen production via electrolysis, syngas generation, and Fischer–Tropsch hydrocarbon synthesis.
Presented conclusions from my project and feedback on the internship in a final team meeting.
Chemistry & Battery Technology Work Experience
Verkor – Lithium-Ion Battery Manufacturer
Shadowed the Head of Chemistry, gaining exposure to both the chemical principles and industrial production of lithium-ion batteries.
Discussed the electrochemical fundamentals of lithium-ion batteries including SEI formation, lithium intercalation, and electrode degradation mechanisms.
Analysed material choices for battery components including graphite anodes, NMC cathodes (LiNiMnCoO₂), PVDF binders, NMP solvents, and conductive carbon additives.
Studied the industrial process for electrode manufacturing, including slurry preparation, coating onto current collectors, solvent removal, and quality control.
Visited cleanroom laboratories where scientists performed analytical testing on battery materials to verify composition and performance.
Observed large-scale battery production and learned how engineering constraints, material sourcing, and financial considerations influence battery design and manufacturing.