Workshop Date: 1st October 2021, Provisional Programme.
09:00 - 09:10UTC Welcome & Introduction
09:10 - 10:30UTC Online Oral Session, with live Q/A session.
09:10-09:20: Analysis of the Anatomical Variability of Fetal Brains with Corpus Callosum Agenesis
09:20-09:30: Simulated Half-Fourier Acquisitions Single-shot Turbo Spin Echo (HASTE) of the Fetal Brain: Application to Super-Resolution Reconstruction
09:30-09:40: A bootstrap self-training method for sequence transfer: State-of-the-art placenta segmentation in fetal MRI
09:40-09:50: Distributionally Robust Segmentation of Abnormal Fetal Brain 3D MRI
09:50-10:00: Detection of Injury and Automated Triage of Preterm Neonatal MRI using Patch-Based Gaussian Processes
10:00-10:10: Assessment of Regional Cortical Development through Fissure Based Gestational Age Estimation in 3D Fetal Ultrasound
10:10-10:30: Live virtual Q&A Session with all the presenters of the session
10:30 - 10:50UTC Coffee break & chat
10:50 - 11:35UTC Virtual Keynote - Dr Ana Namburete followed by live Q/A session.
11:35 - 11:45UTC Quick break
11:45 - 12:20UTC PIPPI Circle Presentation - Prof Manon Benders followed by live Q/A session.
12:20 - 12:40UTC Introduction to parallel poster sessions and Best Paper Award.
13:00 - 14:00UTC Virtual Poster Walks: 2-3min poster pitch followed by 3-4min moderated discussion
Poster Room 1: Fetal & Neonatal Brain
1. Myelination of preterm brain networks at adolescence
2. Segmentation of the cortical plate in fetal brain MRI with a topological loss
3. Fetal brain MRI measurements using a deep learning landmark network with reliability estimation
4. CAS-Net: Conditional Atlas Generation and Brain Segmentation for Fetal MRI
5. Characterization of prenatal to neonatal brain growth with longitudinal super-resolution MRI
6. Partial supervision for the FeTA challenge 2021
Poster Room 2: Placenta & Fetal Body
1. Automatic Placenta Abnormality Detection using Convolutional Neural Networks on Ultrasound Texture
2. Spatio-temporal atlas of normal fetal craniofacial feature development and CNN-based ocular biometry for motion-corrected fetal MRI
3. Texture-based Analysis of Fetal Organs in Fetal Growth Restriction
4. Predicting preterm birth using multimodal fetal imaging
5. A deep learning approach for multi-atlas segmentation of the human embryo in first trimester 3D ultrasound
Poster Room 3: FeTA
Deep learning in fetal neurosonography: Technical challenges and clinical opportunities - Ana Namburete, University of Oxford
The abundance of data created by an increasingly digitised medical system promises new insights into human physiology and tools for diagnostic support. Machine learning-based methods show great potential in deriving predictive biomarkers from medical images but have yet to see widespread clinical adoption due to major bottlenecks. Specifically, (1) shortage of expertly labelled data for model training; (2) large memory footprints required by deep learning models limit deployability on standard hospital devices; and (3) the fact that models optimally adapt to the distribution represented by the training dataset, at the risk of becoming biased and failing to generalise to new datasets. I will present solutions developed by my group to tackle these challenges. Our scientific interest is in understanding structural changes in the human brain during development and aging. We have built the first population atlas of the fetal brain from clinical ultrasound data, depicting spatial and temporal in-utero maturation, and revealing previously undescribed structural features. Our tools enable neurodevelopmental assessment from early pregnancy and deployment in resource-constrained settings.
Ana Namburete is a Royal Academy of Engineering Research Fellow at the Institute of Biomedical Engineering and an Associate Research Fellow at St. Hilda’s College at the University of Oxford. Her research focuses on machine/deep learning with applications to human brain imaging. She holds a BASc in Engineering Science (Electrical and Biomedical Engineering) from Simon Fraser University, and a DPhil in Engineering Science from the University of Oxford with support from a Commonwealth Scholarship, supervised by Professor Alison Noble. Following a postdoctoral fellowship funded by a Grand Challenge Explorations grant from the Bill and Melinda Gates Foundation, she established the Neuroimage Analysis Group at Oxford’s Engineering Department. Her group’s interest is in developing algorithms to characterise the spatiotemporal dynamics of brain maturation and deterioration. Ana serves on the Management Committee of the EPSRC Centre for Doctoral Training in Biomedical Imaging, run jointly between the University of Oxford and University of Nottingham. She has served as a Program Chair of the Medical Image Understanding and Analysis (MIUA) conference (2020 and 2021). She is on the Organising Committee of the 2021 Workshop on Advances for Simplifying Medical Ultrasound (ASMUS) at the Medical Image Computing and Computer-Assisted Interventions (MICCAI) conference. In 2020, she was awarded a Springboard Award from the Academy of Medical Sciences.
Professor Dr. Manon Benders is director of the Departement neonatology of the Wilhelmina Children’s hospital of the University Medical Center in Utrecht, the Netherlands. She was working as a senior clinical lecturer, King’s college London and honary consultant in Neonatology at Guy’s and St Thomas' NHS Foundation Trust in 2014. During her training she did a junior research fellowship at UCLA in 1997, USA and a neonatal neurology fellowship at University of Geneva (Prof. dr. P.S. Hüppi) in 2006-2007.
Her research focus is on brain development and neonatal brain injury using advanced quantification MRI techniques predicting neurodevelopmental outcome and developing neuroprotective/neuroregenerative strategies from bench-to-bedside. In this research field she is supervising several PhD students and clinical research fellows, working in different national and international research projects, as well in clinical as experimental studies.
The talk will focus on brain development and perinatal brain injury using advanced quantification MRI techniques predicting neurodevelopmental outcome and using perinatal neuroimaging to evaluate neuroprotective/neuroregenerative strategies in newborn babies.