Reconnecting Thought & Action

At Epia Neuro we’re building neurotechnology that gives back the freedom to move and think

The Unmet Patient Need

The signal survives.

The pathway doesn’t.

Stroke is the leading cause of long-term disability worldwide, with around 800,000 cases in the US each year. Most survivors are left unable to grip, release, or perform basic tasks for independent living.

Recovery typically plateaus within six months. Beyond that, standard care offers little. The gap between what patients intend to do and what their body allows persists indefinitely.

Our mission is to address the gap between intent and action.

Introducing Our System

Sense & Stimulate

We’re building an integrated brain sensing and stimulation system that detects neural intent, decodes it in real time and, through our proprietary intelligence, seamlessly executes context-aware movement.

Brain Interface

A powerful, proprietary interface that captures neural signals without piercing the dura. Designed to be implanted in less than an hour by any Neurosurgeon at any hospital.

Decoder System

Proprietary algorithms interpret neural signals and convert them into precise digital commands in real time. The system learns continuously: refining accuracy, adjusting stimulation parameters, and building a longitudinal map of each patient’s neural activity.

Wearable Grip Assist

A lightweight grip-assist device shaped by extensive collaboration with stroke survivors, advocates, and clinicians. Built for daily life, not the lab. Restores the ability to grasp objects, release them, and perform essential tasks independently.

Next Generation Neurotech

Designed For The Real World

Closed-Loop Intelligence

Therapy adapts in real time to each patient's neural signals, replacing static programming with continuous optimization.

Rechargeable

Built for decades, not limited studies. Recharged non-invasively via headset while patients go about their day.

Future-Proof

The implant locks into a permanent cradle, allowing the internal device to be upgraded without further invasive surgery.

Clinical Scale Neurotech

Designed For Scale

Minimally Invasive

Unlike intracortical brain computer interfaces that penetrate brain tissue, our system uses an interface that reduces surgical risk.

Widely Accessible

Designed to be delivered in a sub-hour procedure to support wide-scale clinical adoption. A technology designed to be accessible to anyone, anywhere.

No Chest Generator

Traditional DBS systems require chest-implanted hardware and tunneled leads. Our system integrates intracranially, eliminating long lead paths and reducing hardware burden.

Stroke therapy proves the platform. The platform treats across Neurology.

Cognitive Decline

Stroke data creates an early bridge into cognitive impairment, with exploratory cognitive endpoints built into initial clinical programs.

Parkinson’s Disease

Adaptive stimulation driven by real-time feedback, replacing fixed-parameter programming.

Epilepsy

Long-term neuromodulation without repeated battery replacement surgeries.

Our Team

Michel Maharbiz, Ph.D.

Chief Executive Officer

Serial entrepreneur, Founder of iota Biosciences, and former professor of Electrical Engineering and Computer Science (EECS), Bioengineering and the Helen Wills Neuroscience Institute (HWNI) at the University of California, Berkeley

Gil Mandelbaum, Ph.D.

Chief Technology & Science Officer

Neuroscientist and technology leader with more than 15 years of experience developing hardware and software systems for neuroscience research and clinical applications

Michelle Patruno

Chief Operating Officer

Operations executive with more than 15 years of experience scaling high-growth organizations and building teams and systems to support sustainable growth from early stage through IPO

Our Advisors

Dr. David J. Lin, MD

Director, NeuroRecovery Clinic, Massachusetts General Hospital, Boston

Dr. Lin is a critical care neurologist, neurorehabilitation specialist, and Director of the NeuroRecovery Clinic and Laboratory for Translational Recovery at Massachusetts General Hospital (MGH). He specializes in the care of patients with stroke, traumatic brain injury, and spinal cord injury across the acute to post-acute care continuum. His research program focuses on neurologic mechanisms of motor recovery after stroke.

Prof. Bernardo Sabatini, MD, PhD

Professor of Neurobiology & HHMI Investigator; Co-Director, Kempner Institute for the Study of Natural and Artificial Intelligence, Harvard University

Dr. Sabatini is a Howard Hughes Medical Institute Investigator at Harvard Medical School whose laboratory pioneered optical and chemical tools to study synaptic signaling and its role in neuropsychiatric disease. As Co-Director of the Kempner Institute, he leads research at the intersection of neuroscience and AI, using insights from neural circuits to advance machine learning architectures. He is a member of the National Academy of Sciences and the American Academy of Arts and Sciences.

Dr. Mark Richardson, MD, PhD

Director, Functional Neurosurgery, Massachusetts General Hospital, Boston

Dr. Richardson is an internationally recognized neurosurgeon and neuroscientist specializing in epilepsy and movement disorder surgery. He built a renowned intraoperative MRI program at University of Pittsburgh Medical Center, founded the Brain Modulation Lab at Massachusetts General Hospital, consults on clinical trials in brain stimulation and gene therapy, and serves on the Executive Board of the American Society for Stereotactic and Functional Neurosurgery.

Dr. Netanel Ben-Shalom, MD, FNPS

Director, Neuroplastic & Reconstructive Surgery Program, Lenox Hill Hospital, NYC

Dr. Ben-Shalom is internationally recognized as the world's first neurosurgeon to complete the Johns Hopkins Neuroplastic and Reconstructive Surgery fellowship. His dual expertise in neurosurgical oncology and neuroplastic surgery enables a patient-centered approach utilizing 3D printing and third-generation cranial implants. He is co-founder of New York's first Neuroplastic and Reconstructive Surgery Program.

Prof. Jan M. Rabaey

Donald O. Pederson Distinguished Professor Emeritus, EECS, University of California, Berkeley

Prof. Rabaey is a Professor at UC Berkeley and co-founder of the Berkeley Wireless Research Center. He also serves as CTO of IMEC’s System-Technology Co-Optimization division. His contributions span low-power integrated circuits, advanced wireless systems, sensor networks, and brain-computer interfaces, including the Human Intranet. He is an IEEE Life Fellow and a member of the Royal Flemish Academy of Arts and Sciences.

Marc W Slutzky, MD, PhD

Professor of Neurology, Neuroscience, PM&R, and Biomedical Engineering Northwestern University Feinberg School of Medicine

Dr. Slutzky is a Northwestern-trained neurologist and neural engineer, serving as Professor of Neurology and Neuroscience at Northwestern University, where he also practices as a treating neurologist. Specializing in brain-machine interfaces to restore movement and communication in patients with paralysis, stroke, and ALS, he is widely recognized as an international leader in translational neural engineering and serves as President of the Brain Computer Interface Society.

Dr. Joshua Aronson, MD

Director of Epilepsy Surgery, Beth Israel Deaconess Medical Center, Boston

Dr. Aronson is a Harvard-trained internationally recognized neurosurgeon specializing in deep brain stimulation, minimally invasive epilepsy surgery, and facial pain treatment. He has built multiple pioneering surgical programs across leading institutions including Massachusetts General Hospital and Dartmouth-Hitchcock Medical Center, and is widely respected leader in academic neurosurgery.

Rebuilding the connection between brain and body.

If you want your work to restore independence for millions of people, we want to hear from you.

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Epia Neuro is committed to advancing transparent dialogue around the future of brain–computer interfaces and neuromodulation.

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