Computational Materials Science
- Density Functional Theory (DFT)
- Machine Learning Force Fields
- Materials databases
- Property prediction
Pillar 03
Developing the next generation of photovoltaic and energy materials requires exploring chemical design spaces far beyond what conventional experimentation or human intuition alone can achieve. Our research combines generative AI, first-principles simulations and materials physics to design novel semiconductors with targeted stability, synthesisability and optoelectronic functionality. By tightly integrating computational materials design with autonomous experimentation and device validation, we aim to accelerate the discovery of advanced perovskites, charge-transport materials and molecular additives for next-generation photovoltaic technologies.
INVERSE DESIGN
Rather than searching existing materials databases, EMHL begins with the desired functionality. We combine generative AI, first-principles simulations and device physics to design novel perovskite compositions, charge-transport materials and molecular additives tailored for specific optoelectronic, structural and stability targets. By adopting an inverse-design approach, we move beyond identifying existing candidates to proposing entirely new materials with properties optimised for next-generation photovoltaic technologies.
Candidate materials are evaluated using atomistic and electronic-structure simulations, integrated into realistic device models and prioritised according to their predicted performance, stability and synthesisability. The most promising designs are subsequently synthesised, characterised and refined through our autonomous experimental workflows, creating a continuous feedback loop between computational design, experimental validation and physical understanding. This tightly integrated framework accelerates the discovery of new photovoltaic materials while continuously improving both our predictive models and scientific understanding.
Core questions
How can we design materials from targeted physical properties rather than trial-and-error experimentation?
How can computational models discover materials beyond existing chemical spaces?
How can first-principles simulations and AI guide the discovery of synthesisable materials?
How can computationally designed materials be rapidly validated through autonomous experimentation?
Approach
Selected projects
Generative Design of Perovskite Compositions and Structures
Inverse Design of Charge-Transport Materials
AI-Designed Molecular Additives for PV Applications
Towards Foundation Models for Energy Materials Discovery
Collaborations
Interested in generative materials design for sustainable energy?
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