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Serhan Özhan
Serhan is the Founder and CTO of Resolution7, where he builds AI-powered clinical software and IoT solutions for the healthcare industry. With over 25 years in the field – including seven years at Microsoft – he has worked with some of the most recognized names in MedTech, guiding product innovation and helping companies build fully structured software departments from scratch. He has led the technical side of numerous research projects, holds several patents in the surgical domain, and brings deep expertise across embedded systems, mobile, desktop, and web platforms. Staying close to cutting-edge research isn’t just a professional habit for him – it’s a genuine passion. When he needs to unwind, he either hits the road with his camera or sits down at the piano. Both do the job perfectly.

What does the future of brain-computer interfaces look like?

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You can’t get very far in a science fiction film catalogue without seeing the mention of a neural implant. In truth, one need not look too far in the real world either.

Indeed, the medical world has had implanted brain devices for a while, but a new type of technology – brain-computer interfaces (BCIs) – is creating a very different avenue of neuronal exploration.

Elon Musk’s Neuralink is perhaps the most famous company trialling the technology. The businessman recently announced on X (formerly Twitter) that the first human had successfully been implanted with the chip. The first product from the company will aptly be called ‘Telepathy’.

But Neuralink is by no means the only company spearheading this new frontier of neural communication and it will not be the only company to face challenges rolling out the tech either.

 

Clinical landscape

BCIs, also called brain-machine interfaces, are chips implanted in brain tissue that take brain signals and translate them into commands. The measured signals, which can be described as ‘thoughts’, are relayed to a secondary, external device which then carries out a specific function.  At the moment, the main application is in the neuromuscular field – helping paralysed patients move muscles.