Researchers report they have successfully replicated a previous brain-to-brain communication experiment.
Researchers demonstrate the viability of direct brain-to-brain communication in humans located over 5000 miles apart.
Researchers have discovered a fundamental constraint in the brain which could explain why some skills are easier to learn than others.
Researchers have successfully made an artificial connection from the brain to the locomotion center in the spinal cord by bypassing with a computer interface.
DARPA's SUBNETS program includes two complementary research pathways that emphasize neural plasticity and single-neuron recording.
Researchers use computer technology to help understand how the brain circuitry controls movement.
Researchers record the neural activity of monkeys as the plan to reach in order to design better neuroprosthetics.
Researchers develop a new blueprint for touch-sensitive prosthetic limbs. The findings could someday convey real-time sensory information for amputees.
Researchers develop a flexible carbon-nanotube 'harpoon' to study individual brain neurons. The 'brain harpoon' harnesses the electromechanical properties of carbon nanotubes to capture the electrical signals generated by single neurons.
Researchers show that when humans use brain-computer interface technology, the brain behaves much like it does when completing simple motor skills such as waving a hand. This technology could help improve the daily lives of those who are paralyzed or lost specific abilities due to neurodegenerative diseases.
A new study has uncovered the neurological basis of speech motor control, the complex coordinated activity of tiny brain regions that controls our lips, jaw, tongue and larynx as we speak.
Researchers describe how an electrode array sitting on top of the brain enabled a 30-year-old paralyzed man to control the movement of a character on a computer screen in three dimensions with just his thoughts. It also enabled him to move a robot arm to touch a friend’s hand for the first time in the seven years.
Using several neuroimaging methods, a team of researchers working at the University of Western Ontario have now uncovered that functional changes within a key brain network occur directly after a 30-minute session of noninvasive, neural-based training.