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Cognitive Functions
Working with rats, University of Southern California's Theodore W. Berger learned how neurons responsible for memory react to varying patterns of electrical stimulation. His team has turned those reactions into equations on chips, which will soon be implanted in a rat's hippocampus.
David Ignatius reports from the Highlands Conference, a Pentagon-funded group that brings together defense officials and scientists for regular discussions. Dr. Berger's presentation and the Center for Neural Engineering research was particularly noted as "most impressive."
Ted Berger has spent the past decade engineering a brain implant that can recreate thoughts. The chip would remedy everything from Alzheimer's to absent-mindedness — and reduce memory loss to nothing more than a computer glitch.
Supplanting the human brain with computer power has been a staple of science fiction. Scientific American looks at the replacement of damaged brain tissue in rats with a neural prosthesis at the Neural Engineering Labs at USC.
Hippocampal–Cortical Neural Prostheses.
Biotech implants are real for some and really scary for others.
Ted Berger and John Granacki: Engineering on the cusp of computers and the brain.
The work of Jose Delgado, a pioneering star in brain-stimulation research four decades ago, goes largely unacknowledged today. What happened?
The bionic age begins. Neural implants treat tremors, paralysis, and even memory loss.
Ted Berger squints through a microscope at a slice of rat brain the size of an infant's fingernail. It's resting on an array of microelectrodes, which eavesdrops on the murmrs of nerve cells.
In this era of high-tech memory management, next in line to get that memory upgrade isn't your computer, it's you.
Will anyone ever decode the human brain?.
"The microchip, designed to model a part of the brain called the hippocampus, has been used successfully to replace a neural circuit in slices of rat brain tissue kept alive in a dish...The device could ultimately be used to replace damaged brain tissue which may have been destroyed in an accident, during a stroke, or by neurodegenerative conditions such as Alzheimer's disease. It is the first attempt to replace central brain regions dealing with cognitive functions such as learning or speech."
Biomedical engineer Theodore Berger has created a 2 mm-wide silicon chip that he hopes will one day substitute for damaged or diseased brain regions.
The world's first brain prosthesis — an artifical hippocampus — is about to be tested in California. Unlike devices like cochlear implants, which merely stimulate brain activity, this silicon chip implant will perform the same processes as the damaged part of the brain it is replacing.
Neurons and silicon commingling in a soup of living, cognitively functioning "wetware"? It sounds like science fiction, but for Ted Berger and his crack team of USC neuroscientists, computer whizzes and biomedical and electrical engineers, it’s a break-through about to happen.
USC Engineers are tapping the brain to develop the next generation of computer chip, a chip that will be more resilient to damage and better at a host of tasks involving pattern recognition.
One day, a computer chip may do some of the work of a damaged hippocampus, replacing living neurons with silicon ones.
An interdisciplinary miltilaboratory effort to devlop an implantable neural prosthetic that can coexist and bidirectionally communicate with living brain tissue is described.
Speech Recognition
Researchers at the University of Southern California say they have developed a system markedly better than people at recognizing spoken speech.
Californian biomedical engineers have announced their creation of a computer neural network that can recognize spoken words — even better than humans.
University of Southern California biomedical engineers have created the world's first machine system that recognize spoken words better than humans can.
Gunshot Acoustic Recognition
In an unusual application of neuroscience research, police agencies around the country may soon be able to equip street corners with microphones and video cameras to fight gun-related crime.
A microphone surveillance system based on brain cell research is being used to combay shootings on the streets of Chicago and Los Angeles.
A new audio surveillance system could help fight drime in the city and protect kilometers of unmanned borders.
A USC engineer uses his experise with nerve cells to create a surveillance system that can recognize the sound of a nearby gunshot — and identify the shooter.
All ears: The SENTRI listens to the streets in Chicago.
A University of Southern California biomedical engineer's pioneering brain cell research has led directly to a patented system that is now being rolled out to stem gun violence in the streets of Chicago, and, soon, Los Angeles.
Big brother isn't just watching the bad guys in Chicago. By late summer, he'll be listening as well — for the sound of gunshots.
Cognitive Control Signals for Neural Prosthetics