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  • Reading the brain without poking it (6/30/2009)

    A new University of Utah study shows that arrays of tiny electrodes placed between the skull and the brain can accurately detect brain signals that command arm movements -- raising hope for longer-lived devices to help amputees control bionic arms and paralyzed people operate computers with their... more

    Reviewed by johnwatchtower Jun 30, 12:46pm ( 11 reviews ) cyberneticsnews.com

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  • Rated by GeekAlerts on Jul 02, 12:17am

    From the page: "Experimental devices that read brain signals have helped paralyzed people use computers and may let amputees control bionic limbs."
  • Rated by individualathome on Jul 01, 4:41am

    Brain signals controlling arm movements now detected using new microelectrodes that sit ON the brain. Now is tomorrow.
  • Rated by BiosyntheticLife on Jun 30, 8:11pm

    From the page: "this device should allow a high level of control over a prosthetic limb or computer interface"
  • Rated by mac888 on Jun 30, 4:49pm

    1983 a mormon i should turn to be
  • Rated by fastfastlane on Jun 30, 3:13pm

    "Experimental devices that read brain signals have helped paralyzed people use computers and may let amputees control bionic limbs. But existing devices use tiny electrodes that poke into the brain. Now, a University of Utah study shows that brain signals controlling arm movements can be detected accurately using new microelectrodes that sit on the brain but don't penetrate it."
  • Rated by johnwatchtower on Jun 30, 12:46pm

    A new University of Utah study shows that arrays of tiny electrodes placed between the skull and the brain can accurately detect brain signals that command arm movements -- raising hope for longer-lived devices to help amputees control bionic arms and paralyzed people operate computers with their thoughts. These two images show two kinds of microelectrode arrays, known and microECoGs, that were placed on the brains of severe epilepsy patients. The patients already had parts of their skulls removed temporarily for placement of larger ECoG electrodes, which are used to locate and treat the brain area responsible for their seizures. These larger, metallic, button-like electrodes are numbered in both images. The left image also shows two microECoG arrays, each with 16 microelectrodes connected to microwires that pass through the orange and green tubes. Because the arrays are made of fine wires embedded in clear silicone, photo-editing software was used to draw in their outlines in both images. The right image shows one microECoG array with 32 individual microelectrodes, connected with microwires entering via a clear tube from the bottom of the image. The green wires are connected to the large, conventional ECoG electrodes. - University of Utah Department of Neurosurgery
  • Rated by madhollywood on Jun 30, 10:50am

    Poking about is often not the best way to study something fragile much less the human brain.