They could then use
the rerouted nerve signals to control a robotic limb, allowing a person to control their prosthesis with the same nerves they originally used to control their real limb.
Not exact matches
First, the team
rerouted the two main branches of the man's sciatic
nerve to muscles in the thigh above the amputation.
When
nerves connecting the brain and spinal cord are severed,
rerouting signals through local
nerve cells can make movement possible again
In 2006, Todd Kuiken and his colleagues at the Rehabilitation Institute of Chicago in Illinois realised they could preserve some of that functionality by carefully
rerouting sensory
nerves during an amputation and attaching them to another part of the body.
Then they
rerouted blood vessels and one or more types of
nerves to the transplanted tissue from the nonparalyzed side of the face.
A man missing his lower leg has gained precise control over a prosthetic limb, just by thinking about moving it — all because his unused
nerves were preserved during the amputation and
rerouted to his thigh where they can be used to communicate with a robotic leg.