About this trial
Endovascular procedures for treating brain aneurysms and arteriovenous malformations (AVMs) are becoming increasingly popular due to their less invasive nature and lower risk of complications. However, they still face challenges such as difficult catheter navigation and incomplete embolization.
This study aims to improve the efficiency and safety of endovascular procedures by developing new preoperative planning methodologies. These methodologies involve mapping the cerebral vasculature and creating computational fluid dynamics (CFD) and artificial intelligence (AI) models to simulate blood flow. By using these models, interventional radiologists can better plan catheter navigation and predict embolization outcomes. This could lead to faster, more accurate procedures with reduced radiation exposure for patients.
Eligibility criteria
This trial does not accept healthy volunteersQualifiers
Subjects who are diagnosed with aneurysm or arteriovenous malformation
Subjects who are treated (or will be treated) with endovascular embolization and/or arteriovenous coiling
During and before/after the subject's intervention, medical images (MRI, 3D rotational angiography, DSA) were collected of the cerebral arterial vascular tree (which can be used to develop patient-specific models), including catheter location and use of contrast fluid to visualize the cerebral to make the arterial tree more visible.
Disqualifiers
None
Trial population
subjects who had or will have endovascular treatment of an intracranial aneurysm or cerebral arteriovenous malformation
Trial design
Cohort
Other
Treatments tested in this trial
Endovascular treatment
DeviceEndovascular treatment
Treatment groups
Trial outcomes
Primary outcomes
Accuracy of CFD models
Correlation coefficient between CFD-predicted and measured blood flow velocity and pressure distribution
Identification of important procedure parameters
Identification of key procedure parameters (e.g., properties of embolization agent, procedural actions) using the computational framework.
Efficiency of AI-enhanced CFD modelling
Time, sensitivity, specificity, and accuracy of AI models in verifying the acceleration power while maintaining high-quality results.
Cerebral vasculature mapping
Development of accurate and efficient image processing methods to support clinical embolization procedures. Evaluation using independent datasets and metrics (e.g., accuracy, precision, recall, F1-score).
Sponsors and contacts
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University Hospital, Ghent
Lead sponsor
University Ghent
Collaborator