RNFL maps
Peripapillary retinal nerve fibre layer thickness maps.
Ophthalmic AI
Modelling retinal structure using OCT-derived RNFL and GCIPL thickness maps, with a focus on continuum-aware latent spaces.
Problem
In many medical AI settings, the goal is often framed as healthy versus disease classification. But glaucoma-related structural change can be better understood as a continuum involving normal, suspect, and glaucomatous patterns.
The research objective is to learn representations that can support classification while also revealing how retinal thickness structure changes across latent directions.
Data
Peripapillary retinal nerve fibre layer thickness maps.
Macular ganglion cell-inner plexiform layer thickness maps.
Right-eye maps can be horizontally flipped for anatomical alignment.
High-resolution maps can be resized for efficient model training.
Pipeline
Placeholder results
These cards are currently placeholders and can later be updated with final validated values, figures, and links to papers or thesis chapters.
Placeholder/result snapshot for healthy class discrimination.
Placeholder/result snapshot for glaucoma class discrimination.
Space for clinically meaningful traversal examples and reconstructions.
Space for reconstruction fidelity plots and error summaries.
Interpretability
Latent traversals can be used to inspect structural transitions.
Domain-aware loss maps can highlight clinically relevant areas.
Interpretability depends on traversals being coherent and realistic.
Next
The ophthalmic AI page connects to the broader MixtureBetaVAE framework used across research domains.
Open MixtureBetaVAE