This PhD project focuses on developing advanced generative machine learning models to accelerate the discovery of new inorganic solid-state materials, crucial for innovations in energy storage, catalysis, semiconductors, and quantum technologies. The current methods for designing these materials are challenging, highlighting the importance of improved methodologies. The project will explore cutting-edge generative modelling techniques, such as diffusion models and large language models, integrating them with chemically informed constraints and first-principles calculations. The aim is to create AI-driven crystal structure prediction workflows that can accurately generate potential experimental targets, predict their stability and properties, and ultimately push the boundaries of materials discovery beyond existing paradigms. You will join a multidisciplinary research group at the intersection of solid-state materials science and AI, with access to high-performance computing resources and opportunities to collaborate with experimentalists. This studentship is ideal for individuals with a background in computational materials science, machine learning, or artificial intelligence, who possess strong Python coding skills. Familiarity with ML frameworks like PyTorch/TensorFlow, graph/neural networks, materials science, crystallography, or solid-state chemistry would be advantageous.
This PhD provides a strong foundation for a career in cutting-edge research and development within academia or industry, focusing on the application of AI in materials science.
Applicants are encouraged to highlight relevant experience with Python, ML frameworks (PyTorch/TensorFlow), graph/neural networks, and familiarity with materials science, crystallography, or solid-state chemistry. Experience with writing code is essential.
The studentship covers full tuition fees and a maintenance grant for 3.5 years. A Research Training Support Grant is also provided for consumables and conference attendance.
The PhD is awarded by the University of Liverpool.
You need a Master's degree or equivalent in Computer Science or a Physical Science. A First Class Honours Bachelor's degree in an appropriate field can be considered for exceptional candidates. Strong Python coding skills are essential, and experience with ML frameworks or materials science is advantageous.
Yes, the UKRI funded studentship covers full tuition fees and provides a maintenance grant at the UKRI minimum rate, starting at £21,805 for 2026/27. A Research Training Support Grant is also provided.
Yes, a limited number of International Fee Difference Scholarships may be available for outstanding international students to cover the difference between international fees and the UKRI funding.
The PhD programme has a funding duration of 3.5 years and is set to start on October 1, 2026.
You should first contact the supervisors, Professor Matt Rosseinsky (m.j.rosseinsky@liverpool.ac.uk) or Professor Rahul Savani (Rahul.Savani@liverpool.ac.uk), to express your interest. Then, prepare your application documents and submit your application through the University of Liverpool's online postgraduate research application portal by August 31, 2026.
This PhD prepares you for roles such as an AI Researcher in Materials Science, Computational Materials Scientist, Machine Learning Engineer, R&D Scientist, or Data Scientist in scientific fields.