Completed Brain & Nervous System Heart, Stroke & Blood

Novel multimodality imaging techniques for neurosurgical planning and stereotactic navigation in epilepsy surgery.

In plain English

AI plain-English summary

Surgeons planning epilepsy operations currently rely on separate brain scans viewed in isolation, forcing them to mentally overlay images of blood vessels, nerve pathways, and seizure hotspots—a process that risks missing critical structures and limits how much damaged tissue they can safely remove. This project builds a single software module, StealthEpilepsy, that fuses all relevant brain imaging into one interactive 3D model. The system combines structural scans, maps of arteries and veins, white matter tracts, and functional markers of language, movement, and vision, alongside metabolic and electrical data pinpointing seizure origins. Surgeons will use this unified view to plan electrode placements and guide the resection itself, with the module integrated into the Medtronic neuronavigation system already used in operating rooms. If successful, the software could be rolled out to all UK neurosurgery centres within three years. The immediate impact is safer, more effective epilepsy surgery—reducing the risk of damaging eloquent brain areas while improving the chance of seizure freedom. Because the same imaging fusion applies to tumour surgery, the module could also improve precision in removing brain cancers. The work is a direct clinical tool, not fundamental science, and is being developed in collaboration with Medtronic for commercial deployment.

View original technical description
a) There is poor neurosurgical precision for treating refractory focal epilepsy, resulting in risk of causing deficits and restricting potentially curative surgery. b) A software package, the StealthEpilepsy module , integrated into the Medtronic StealthViz product will enable interactive 3D-display of processed multi-modality brain imaging: including brain structure, lesions, arteries, veins, white matter tracts, and eloquent cortex (motor, language, vision), and markers of abnormal function that localize epileptic foci (glucose metabolism, blood flow and electrical and magnetic source imaging). These data will be used to interactively determine the optimal placement of intracranial electrodes and subsequent cerebral resection, with integration into the Stealth neuronavigation system used in the operating room. c) Brain imaging methods that will result in safer, more effective neurosurgery and which could be rolled out to all Neurosurgery Centres in the UK within three years. Production of a new StealthViz module StealthEpilepsy dedicated to epilepsy surgery, in collaboration with Medtronic. Demonstration of utility of StealthEpilepsy , with modification of surgical plans and good outcomes from surgery. d) Safer epilepsy surgery, reduced risk of damaging eloquent structures, and improved chance of seizure freedom. These advances will be applied across the UK and globally, and will also be relevant to tumour surgery.

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Researchers

John Duncan (EPMC Awardee)

Related Research

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Original classification

Health Innovation Challenge Fund Award

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