Microscopic

Computational Digital Neuropathology

Quantifying disease from the tissue up.

Overview

We apply deep learning to whole-slide images and pathomics to characterise brain tumours at the cellular level, turning microscopy into quantitative, reproducible diagnostic information.

Computational Digital Neuropathology brings the lab's quantitative approach to the microscope. Working with whole-slide images of brain tissue, we develop deep-learning and pathomics methods that detect, classify and characterise disease at the cellular and tissue level, turning what has traditionally been a qualitative, expert-driven read into reproducible, quantitative information. Our work includes automated analysis of tumour histology, extraction of pathomic features that capture cell morphology and tissue architecture, and models that link these features to diagnosis, grade and molecular status. A recurring theme is collaboration across institutions and modalities, bridging digital pathology with imaging and genomics so that a tumour can be understood across scales, from the whole brain down to the single cell. Because pathology sits at the heart of diagnosis, we place particular emphasis on robustness and generalisability: models that hold up across scanners, stains and sites, and that clinicians can trust.

Methods

Techniques & approaches

The computational methods that underpin this research area

Radiomics

Whole-slide image analysis, Pathomics, Deep learning for histopathology, Cell and tissue classification, Cross-modal integration, Reproducibility across sites

Publications

Selected publications in this area

Book chapter

2024

Robotics for approaches to the anterior cranial fossa

Anokwute M.C., Christodoulides A., Campbell R.G., Harvey R.J., Ieva A.D.

Robotics in skull-base surgery

Book chapter

2024

Fractal dimension analysis in neurological disorders: an overview

Díaz Beltrán L., Madan C.R., Finke C., Krohn S., Di Ieva A., Esteban F.J.

The fractal geometry of the brain

Book chapter

2024

Fractal analysis in clinical neurosciences: an overview

Di Ieva A.

The fractal geometry of the brain

Book chapter

2024

Machine and deep learning in hyperspectral fluorescence-guided brain tumor surgery

Suero Molina E., Black D., Xie A., Gill J., Di Ieva A., Stummer W.

Computational neurosurgery

Funding

Selected funding in this area

Grants supporting our computational neuroimaging research programme

Australian Cancer Research Foundation (ACRF)

COMET Centre for Advanced Cancer Modelling & Experimental Oncology

$2,500,000

Centre Grant

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