π Lab
Active projects

What is running now

Six programmes are currently active, each led by a member or affiliate of the lab. Projects run under the Bio-AImagiQ initiative and draw on the shared imaging facility.

Knee radiograph beside a femur rendered with a strain colour map and trabecular bone detail

Imaging-based AI models for tissue mechanics

Fully developing D2IM by integrating additional AI strategies, advanced XCT segmentation models and the power of large language models. The goal is a model that reads a tomographic volume and returns the internal strain field directly, at a fraction of the cost of conventional digital volume correlation.

Jon Valijonov · Lead Tissue mechanics · Theme Active · Status
Molecular model, joint anatomy, self-assembled nanoparticles and a printed lattice scaffold

AI models for advanced biomaterial design

Applying advanced AI models to analyse, predict and optimise the hierarchical self-assembly of nanoparticles into macroscale soft biomaterials — connecting formulation choices to the structure that emerges from them.

Moeen Mohammady · Lead Biomaterials · Theme Active · Status
Hyperspectral light dispersed across a tissue sample beside a brain illustration

Hyperspectral imaging and AI for biological tissues

Exploring the unique spectral signature of biological tissues and developing advanced AI models for healthcare, building on DiffSpectralNet and MedDiffHSI toward clinically useful tumour detection.

Neetu Sigger · Lead Hyperspectral AI · Theme Active · Status
Scanning electron micrograph of composite fibres mapped to a modelled defect volume

Imaging-based AI models for bio-composites

Developing D2IM-based tools that give the industrial partner a technology to identify the nature of defects in bio-composites and inform the manufacturing process.

KTP-10108115 · Programme Pinelopi Almpantaki · Researcher Active · Status
Quantum processor and AI circuitry beside a magnified tissue cross-section

Quantum-AI synergy for next-generation imaging

Developing quantum-native representations of biological tissue images, enabling efficient AI operations such as classification, segmentation, measurement and multimodal data fusion directly in the quantum space.

Isabella Florez · Lead Quantum imaging · Theme Active · Status
Bone lattice cube surrounded by acoustic waveforms and frequency spectra

Multi-dimensional sonification of bone XCT images

A cross-disciplinary collaboration between academics at the Faculty of Engineering and Science, investigating a novel multi-dimensional AI sonification approach to design and optimise bone biomimetic materials — blending high-resolution imaging, AI sonification, computational modelling and additive manufacturing.

Cross-faculty collaboration · Type Biomimetic materials · Theme Active · Status