🎓 Discover PhD and Master's programmes at leading universities worldwide — Sign up free to save searches and get email alerts
UCL

A Formulation-by-Design Framework for High-Performance Li-S Battery Electrolytes

University College London Department of Chemical Engineering
✓ Fully Funded ⏰ Closing Soon 🎓 Chemical Engineering 🎓 Chemistry 🎓 Materials Science 🎓 Physics optimisation electrochemistry energy storage Li-S batteries battery technology data-driven design

Fully funded PhD at UCL developing data-driven approaches to design high-performance lithium-sulfur battery electrolytes using experimental and computational methods.

Project Description

University College London offers a fully funded four-year PhD in Chemical Engineering focused on advancing lithium-sulfur (Li-S) battery technology through data-driven electrolyte design. The project aims to overcome stability challenges limiting Li-S battery commercialisation by developing predictive models and optimisation strategies for electrolyte formulations. Research will involve generating high-fidelity datasets, modelling electrolyte behaviour, and validating performance through experimental testing. The student will gain expertise in both experimental electrochemistry and computational modelling, working across leading research groups including the Advanced Propulsion Lab, Electrochemical Innovation Lab, and Process Systems Engineering community.

Entry Requirements

Degree (First, 2:1, or MSc) in chemical engineering, chemistry, materials science, physics, or related field
• Strong interest in electrochemistry or battery science
• Experience in research methods, optimization, or related areas (desirable)
• Must be eligible for UK “home” fees (or able to cover fee difference)

How to Apply

Apply via the UCL application portal and include a statement of interest. Nominate Dr Alexander Kibler as supervisor.

Eligibility

UK/Home
EU
International

Supervisor Profile

DA
Dr Alexander Kibler; Dr Lauren Ye Seol Lee
University College London, Department of Chemical Engineering

Related Opportunities

Rheology and Hydrodynamics of Algal and Cyanobacteria Co-Cultures
University of Technology Sydney Assoc Prof Mathieu Pernice 🎓 Biotechnology 🎓 Chemical Engineering

Explore the complex rheological and hydrodynamic properties of mixed algal cultures. Develop models to optimize industrial photobioreactor design, combining lab research and industrial application in an international se…

This research enables more efficient and resilient algal cultivation methods critical for sustainable biotechnology. By improving photobior…

6109+ citations · h43
Symbiosis Nutrition Microalgae Omics
Line-Scanning Brillouin-Raman Microscope for Fast 3D Mechano-Chemical Mapping of Biological Samples
University of Technology Sydney Assoc Prof Irina Kabakova 🎓 Optical Physics 🎓 Physics

Design a novel line-scanning Brillouin-Raman microscope to rapidly map mechanical and chemical properties in 3D. Address slow point-by-point imaging limitations and enable live biological sample studies with microscopic…

The research enables high-speed mechano-chemical imaging of live biological samples, crucial for advancements in fundamental biology, tissu…

2176+ citations · h26
microscopy Brillouin light scattering biomechanics advanced materials
Constrained Bismuth–Metal-Free Scaffolds for Ammonia Activation
Maynooth University Dr Daniela Bezuidenhout 🎓 Chemistry 🎓 Materials Science Deadline: 30 Apr 2026

Explore developing precious metal-free bismuth-based scaffolds for catalyzing ammonia activation under Dr Daniela Bezuidenhout's supervision at Maynooth University. Synthesize and characterize novel compounds to advance…

This research targets sustainable catalytic activation of ammonia, a key molecule in green energy and chemical industry. By designing preci…

1080+ citations · h20
Bismuth Scaffolds Ammonia Activation Organic Ligands Catalyst Development
Multi-Scale Computational Framework for Charge Transport and Thermoelectric Properties in Self-Assembled Monolayer Molecular Junctions
Maynooth University Prof. Pierre Cazade 🎓 Biochemistry 🎓 Chemistry Deadline: 01 May 2026

Develop models to predict charge transport and thermoelectric behavior in molecular junctions. Explore nanoscale thermoelectrics for waste heat recovery. Collaborate internationally to bridge molecular design and device…

This research aims to enable rational design of molecular electronic devices, improving nanoscale energy harvesting technologies such as mo…

Charge Transport Thermoelectric Properties Molecular Junctions Self-Assembled Monolayers