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 pattern-recognition device


Predicting Complex Behavior in Sparse Asymmetric Networks

Neural Information Processing Systems

Recurrent networks of threshold elements have been studied inten(cid:173) sively as associative memories and pattern-recognition devices. While most research has concentrated on fully-connected symmetric net(cid:173) works. These net(cid:173) works can show fixed-point. The approach also provides qualitative insight into why the system behaves as it does and suggests possible applications.


Our Mind-Boggling Sense of Smell - Issue 91: The Amazing Brain

Nautilus

You might say the brain is our most photogenic organ. We are, thanks to modern neuroimaging, living amid an explosion of brain data. Just consider: We can zoom into the brain's connectivity to the most minute, molecular level. We can trace individual cells as well as entire cell populations. We can turn neurons on and off just like a light switch.


Predicting Complex Behavior in Sparse Asymmetric Networks

Neural Information Processing Systems

Recurrent networks of threshold elements have been studied intensively as associative memories and pattern-recognition devices. While most research has concentrated on fully-connected symmetric networks.


Predicting Complex Behavior in Sparse Asymmetric Networks

Neural Information Processing Systems

Recurrent networks of threshold elements have been studied intensively asassociative memories and pattern-recognition devices. While most research has concentrated on fully-connected symmetric networks.