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Robotic and Electrical Stimulation Platform for Integral Neuromuscular Enhancement

Project description

Neuro-robotic platform for lower limb recovery

Neuromuscular injuries often lead to long-term motor impairments, negatively impacting the quality of life of patients and their families. Existing robotic devices fail to optimally support recovery due to limited understanding of their impact on spinal and muscular activity. The ERC-funded RE-SPINE project proposes to develop a robotic platform that integrates a robotic ankle exoskeleton with spinal cord electrical stimulation to non-invasively target spinal motor neurons and muscles. The platform will analyse signals from the body and model how spinal motor neurons behave. This will offer patients the opportunity to actively control their joint movements and engage the right muscles at the right time, positively impacting their rehabilitation.

Objective

RE-SPINE develops a real-time neuro-robotic platform for lower limb rehabilitation. Motor recovery following neuromuscular injuries is often sub-optimal. A key barrier hampering progress is that current neurorehabilitation robots interact with the human with limited knowledge of their effect on critical neuromuscular targets.

RE-SPINE addresses this challenge by proposing a platform that integrates a stationary robotic ankle exoskeleton with a non-invasive spinal cord electrical stimulation system. This platform generates electrical and mechanical stimuli non-invasively, which are directed to spinal motor neurons and innervated muscle fibers, with precision not considered before.

RE-SPINE combines non-invasive biosignal recording and numerical modelling to decode the cellular activity of spinal motor neurons, with the resulting mechanical forces generated by innervated muscle fibers. In this way, residual spinal motor neuron activity is translated into biomechanical force, which is subsequently used to enable volitional and continuous control of a stationary robotic ankle exoskeleton across a wide range of joint rotations, which could not be otherwise achieved without neuro-robotic support. Concurrently, decoded spinal motor neuron activity is used to command spinal cord electrical stimulation patterns that modulate spinal excitability and neuronal synchronization, ultimately for enhancing volitional control of the own leg. Over time, the integrated effects of neuro-controlled electrical and mechanical stimulation promote positive neuro-plastic changes, which are required for gaining an integral motor recovery after injury, with potentials for disrupting current robotic systems for rehabilitation.

Fields of science (EuroSciVoc)

Programme(s)

Topic(s)

Funding Scheme

HORIZON-ERC-POC - HORIZON ERC Proof of Concept Grants

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Call for proposal

(opens in new window) ERC-2024-POC

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Host institution

UNIVERSITEIT TWENTE
Net EU contribution
€ 150 000,00
Address
DRIENERLOLAAN 5
7522 NB Enschede
Netherlands
Region
Oost-Nederland Overijssel Twente
Activity type
Higher or Secondary Education Establishments
Links
Total cost
No data

Beneficiaries (1)