Probabilistic deep learning with adversarial training & volume interval estimation - better ways to perform & evaluate predictive models for white matter hyperintensities evolution. Link to paper on Springer Nature Authors Muhammad Febrian Rachmadi, Maria del C. Valdés-Hernández, Rizal Maulana, Joanna Wardlaw, Stephen Makin, Henrik Skibbe Abstract Predicting disease progression always involves a high degree of uncertainty. White matter hyperintensities (WMHs) are the main neuroradiological feature of small vessel disease & a common finding in brain scans of dementia patients & older adults. In predicting their progression previous studies have identified two main challenges: 1) uncertainty in predicting the areas/boundaries of shrinking & growing WMHs & 2) uncertainty in the estimation of future WMHs volume. This study proposes the use of a probabilistic deep learning model called Probabilistic U-Net trained with adversarial loss for capturing & modelling spatial uncertainty in brain MR images. This study also proposes an evaluation procedure named volume interval estimation (VIE) for improving the interpretation of & confidence in the predictive deep learning model. Our experiments show that the Probabilistic U-Net with adversarial training improved the performance of non-probabilistic U-Net in Dice similarity coefficient for predicting the areas of shrinking WMHs, growing WMHs, stable WMHs, & their average by up to 3.35%, 2.94%, 0.47%, & 1.03% respectively. It also improved the volume estimation by 11.84% in the “Correct Prediction in Estimated Volume Interval” metric as per the newly proposed VIE evaluation procedure. Keywords Progression prediction Volume interval estimation White matter hyperintensities Related links Link to paper on Springer Nature Professor Joanna Wardlaw Dr Maria Valdez Hernandez Brain & nervous system Small vessel disease (SVD) Dementia What is a MR scan? Social media tags & titles Featured paper: Probabilistic deep learning with adversarial training & volume interval estimation - better ways to perform & evaluate predictive models for white matter hyperintensities evolution @SVDResearch Publication date 25 Oct, 2021