Bidirectional neuromuscular interface based on associative plasticity for stroke therapy during activities of daily living
The neubond device offers autonomous, wearable therapy for stroke recovery, enhancing motor function and neuroplasticity through real-time muscle stimulation during daily activities.
Projectdetails
Introduction
Stroke is a leading cause of disability globally, with millions affected each year. A critical challenge in stroke recovery is the limited availability and intensity of rehabilitation therapies, which often fail to meet recommended guidelines.
Project Overview
The neubond device aims to address this by delivering autonomous, wearable therapy to stroke survivors during their daily activities. The device detects muscle activity through muscle signals and provides real-time stimulation to enhance motor recovery.
Innovative Approach
By leveraging our novel volition induced paired associative stimulation (VIPAS) approach, the system stimulates neuroplasticity and facilitates muscle contractions, accelerating functional improvements without the need for complex setups or screen-based exercises.
Initial Trials
Initial trials have demonstrated significant improvements in motor function and usability, with:
- A reduction in spasticity
- Increased range of motion
Alignment with Needs
Our concept aligns with the unmet need for continuous, accessible rehabilitation, bridging the gap between clinical and home-based care. The device's non-invasive, autonomous design enhances patient compliance, ensuring consistent therapy outside of scheduled sessions.
Research Background
The project leverages findings from the ERC Synergy grant Natural BionicS, focusing on bi-directional brain-muscle interfaces.
Future Goals
The project aims to advance the prototype towards regulatory compliance, safety, and usability testing, ultimately driving commercialization and spinout formation.
Potential Impact
Our device presents a high-gain potential, with significant cost savings for healthcare providers and enhanced quality of life for stroke survivors.
Financiële details & Tijdlijn
Financiële details
Subsidiebedrag | € 150.000 |
Totale projectbegroting | € 150.000 |
Tijdlijn
Startdatum | 1-3-2025 |
Einddatum | 31-8-2026 |
Subsidiejaar | 2025 |
Partners & Locaties
Projectpartners
- IMPERIAL COLLEGE OF SCIENCE TECHNOLOGY AND MEDICINEpenvoerder
Land(en)
Vergelijkbare projecten binnen European Research Council
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Induction of NEuromuscular Plasticity for natural motor rehabilitaTION
INcEPTION aims to enhance neurorehabilitation by optimizing stimulation protocols through real-time estimation of neural connectivity from EMG signals, promoting recovery in stroke and cancer survivors.
A Direct Sensorimotor Connection with the Spared Neural Code of Movement to Regain Motor Function
This project aims to develop a bidirectional neural interface that enhances motor function in paralyzed individuals by precisely mapping and engaging spinal motor neurons through advanced sensing and feedback methods.
Robotic and Electrical Stimulation Platform for Integral Neuromuscular Enhancement
RE-SPINE creates a neuro-robotic platform combining a robotic ankle exoskeleton and spinal stimulation to enhance lower limb rehabilitation and promote motor recovery after neuromuscular injuries.
Against prostheses abandonment: immersive and low-cost platform for the rehabilitation of upper-limb amputees
BRAINmade aims to reduce upper-limb prosthesis abandonment by integrating EMG-controlled VR training to enhance motor skills and acceptance, transforming rehabilitation practices for amputees.
A Digitally-Enabled Electroconductive Patient-Specific Stimulation Implant for Spinal Cord Injury
This project aims to develop a patient-specific 3D-printed neuromodulation implant to enhance neuron regrowth and restore function in spinal cord injury patients through targeted electrical stimulation.
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BRAIN-SPINE INTERFACES TO REVERSE UPPER- AND LOWER-LIMB PARALYSISDeveloping fully-implantable brain-spine interfaces to restore movement in individuals with chronic paralysis through advanced neurosensors and neurostimulation systems. | EIC Transition | € 2.490.802 | 2022 | Details |
Auto-adaptive Neuromorphic Brain Machine Interface: toward fully embedded neuroprostheticsThe NEMO BMI project aims to develop an assistance-free, user-friendly neuroprosthetic system that utilizes brain signals for limb control, enhancing usability and portability through innovative technologies. | EIC Pathfinder | € 3.784.703 | 2022 | Details |
Brain Interchange ONE SR—the implantable neuromodulation technology for stroke rehabilitationCorTec aims to develop innovative implantable technology for stroke rehabilitation, enabling new therapies and devices while targeting market approval and $250M in sales by 2030. | EIC Accelerator | € 2.500.000 | 2022 | Details |
Mapping the brain-spinal cord interaction towards understanding and treatment of movement disordersMove2Treat aims to develop a novel bi-directional brain-spinal cord interface to enhance understanding and treatment of movement disorders through advanced neuronal circuit mapping. | EIC Pathfinder | € 2.996.048 | 2024 | Details |
Advanced Intelligent stimulation device: HAND movement restorationThe AI-HAND project aims to develop an advanced ASIC-based implanted device with self-adapting electrodes to restore hand movements in quadriplegic patients through innovative nerve stimulation techniques. | EIC Pathfinder | € 2.999.834 | 2023 | Details |
BRAIN-SPINE INTERFACES TO REVERSE UPPER- AND LOWER-LIMB PARALYSIS
Developing fully-implantable brain-spine interfaces to restore movement in individuals with chronic paralysis through advanced neurosensors and neurostimulation systems.
Auto-adaptive Neuromorphic Brain Machine Interface: toward fully embedded neuroprosthetics
The NEMO BMI project aims to develop an assistance-free, user-friendly neuroprosthetic system that utilizes brain signals for limb control, enhancing usability and portability through innovative technologies.
Brain Interchange ONE SR—the implantable neuromodulation technology for stroke rehabilitation
CorTec aims to develop innovative implantable technology for stroke rehabilitation, enabling new therapies and devices while targeting market approval and $250M in sales by 2030.
Mapping the brain-spinal cord interaction towards understanding and treatment of movement disorders
Move2Treat aims to develop a novel bi-directional brain-spinal cord interface to enhance understanding and treatment of movement disorders through advanced neuronal circuit mapping.
Advanced Intelligent stimulation device: HAND movement restoration
The AI-HAND project aims to develop an advanced ASIC-based implanted device with self-adapting electrodes to restore hand movements in quadriplegic patients through innovative nerve stimulation techniques.