About this trial
Neurosurgery is a high-stakes surgical specialty where errors can result in significant morbidity. The amount of force applied simultaneously on the brain with multiple different instruments during complex neurosurgical procedures is a critical safety metric that, to the investigators' knowledge, has not been previously measured in a realistic operative environment.
The investigators have therefore developed a simulation platform integrating an ex vivo calf brain and a 3D-printed skull model attached to a force sensor capable of capturing real-time forces applied to the brain. A case series study will be conducted to evaluate the pattern of force applied. Medical students, neurosurgical residents, and staff neurosurgeons from McGill University will be recruited to perform subpial resections using our ex vivo calf brain simulation platform. The forces applied by the microscissors, bipolar forceps, and ultrasonic aspirator onto the brain will be captured. This study aims to demonstrate the spectrum of force applied during a neurosurgical procedure using an ex vivo calf brain model.
Eligibility criteria
This trial accepts healthy volunteersQualifiers
Right-handed medical students, neurosurgical residents, and staff neurosurgeons from McGill University
Disqualifiers
Left-handed individuals
Trial population
Staff neurosurgeons, neurosurgical residents, and medical students from McGill University
Trial design
Case-only
Cross-sectional
Treatments tested in this trial
Not listed
Trial groups
Trial outcomes
Primary outcomes
Forces applied to the brain during each simulated subpial resection procedure step
Throughout each simulated ex vivo subpial resection procedure, forces applied to the brain during tool-tissue contact will be measured by the force/torque sensor in grams and Newtons.
Sponsors and contacts
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