The BrainGate brain-machine interface is able to transmit signals from a single neuron resolution with full broadband fidelity without physically tethering the user to a decoding system.
A novel flexible, breathable magnetic skin allows people with quadriplegia to move around their environment with greater ease.
Protein hyper-interleukin-6, a "designer protein" that has to be produced via genetic engineering, enabled a paralyzed mouse to walk again.
A tiny neural implant dubbed the Stentrode, allows people with upper limb paralysis to regain motor function. The device wirelessly restores the transmission of brain impulses.
Combining machine learning with neuroprosthetic technology allowed a patient with paralysis to learn to control a computer cursor by utilizing brain activity without extensive daily retraining.
An implantable, wireless brain-computer interface device can help improve the functional independence of those living with paralysis, a new study reports.
A newly developed artificial neural connection device allows new cortical sites, previously not associated with limb movements, to swiftly regain the control of a paralyzed hand.
Researchers detected immunological remnants of enterovirus in the nervous systems of more than 12 patients with acute flaccid myelitis (AFM). The findings provide the strongest evidence to date that AFM is caused by a virus. The discovery could lead to improved diagnostics for the condition and the development of a vaccine for AFM.
A novel surgical technique that connects functioning nerves with injured nerves helps restore function to paralyzed muscles. Following surgery, 13 young adults with tetraplegia now have restored hand and elbow function, allowing them to feed themselves, hold a drink and write.
A minimally invasive brain implant is to be tested on humans for the first time. The device, named Stentrode, will be placed in blood vessels in the motor cortex, and researchers believe it will help improve movement and speech for those with a range of neurological disorders.
Researchers have developed a new and innovative surgery that involves the transfer of nerves to help restore movement to children suffering paralysis as a result of contracting AFM.
Researchers have developed a new, wireless optogenetic device which is able to control neurons in the brain. The device could help turn off pain receptors and reduce the effects of some neurological disorders.
