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PULSE (Ultrasound): Research | Engineering Science Department - University of Oxford

Research

Our research has three main strands

Research Collage

Combination of research images

Watch our video showing the sonographer's gaze (the green dot) during a scan

Watch our video showing the sonographer's gaze (the green dot) during a scan

Describing ultrasound video content

Our aim is to build very rich computational descriptions of ultrasound video content using deep learning architectures that are potentially useful for clinical applications such as diagnosis, information recall, training and audit.

Our current research includes:

  • Unsupervised ultrasound image representation learning.
  • Design of efficient spatio-temporal CNN architectures for ultrasound video.
  • Hierarchical life-long learning for image representation learning.
  • Dynamic neural attention models.
  • Automatic captioning of ultrasound video.

Spatio-temporal partitioning and classification of full-length fetal anomaly scan videos

Spatio-temporal partitioning and classification of full-length fetal anomaly scan videos

'Big data' sonography

Our aim is to enhance understanding of human visual search and navigation in clinical sonography by large-scale data analysis of simultaneously acquired ultrasound, eye-tracking and probe motion data. 

We are collecting a large dataset of 1000 full obstetric ultrasound scans with sonographer eye-movement and probe motion data simultaneously acquired for this purpose. This amounts to about 750 hours of clinical workflow/skills assessment video.

We are studying the human visual search and navigation strategies employee by highly-trained sonographers in task-oriented scenarios.

We are studying whether minimally-trained users and experts follow different search strategies, and whether there are different strategies amongst experts.

Knowledge gleaned will lead to better understanding of skills assessment, clinical workflow optimisation and assistive device design.

Simplifying sonography

Our aim is to advance understanding of engineering design of deep learning architectures for ultrasound imaging that efficiently embed visual search and navigation models to assist a minimally-trained user in ultrasound-based clinical decision-making.