Many neurons in the frontal eye field (FEF) and lateral intraparietal (LIP) areas of cerebral cortex are active during the visual-motor events preceding the initiation of saccadic eye movements: they respond to visual targets, increase their activity before saccades, and maintain their activity during intervening delay periods. Previous experiments have shown that the output neurons from both LIP and FEF convey the full range of these activities to the superior colliculus (SC) in the brain stem. These areas of cerebral cortex also have strong interconnections, but what signals they convey remains unknown. To determine what these cortico-cortical signals are, we identified the LIP neurons that project to FEF by antidromic activation, and we ...
Our percept of visual stability across saccadic eye movements may be mediated by presaccadic remappi...
Each of our movements activates our own sensory receptors, and therefore keeping track of self-movem...
Perception is dependent not only on sensory input but on the state of the brain receiving that input...
The frontal eye field (FEF) and superior colliculus (SC) contribute to saccadic eye movement generat...
The ability of primates to make rapid and accurate saccadic eye movements for exploring the natural ...
The ability of primates to make rapid and accurate saccadic eye movements for exploring the natural ...
The ability of primates to make rapid and accurate saccadic eye movements for exploring the natural ...
AbstractThe ability of primates to make rapid and accurate saccadic eye movements for exploring the ...
graphic organization of signals sent from the frontal eye field to the superior colliculus. J. Neuro...
Neuronal processing in cerebral cortex and signal transmission from cortex to brain stem have been s...
One way we keep track of our movements is by monitoring corollary discharges or internal copies of m...
Many neurons in the frontal eye field (FEF) exhibit visual responses and are thought to play importa...
Perception depends not only on sensory input but also on the state of the brain receiving that input...
We perceive a stable visual world even though saccades often move our retinas. One way the brain may...
Previous studies have identified several cortical regions that show larger BOLD responses during pre...
Our percept of visual stability across saccadic eye movements may be mediated by presaccadic remappi...
Each of our movements activates our own sensory receptors, and therefore keeping track of self-movem...
Perception is dependent not only on sensory input but on the state of the brain receiving that input...
The frontal eye field (FEF) and superior colliculus (SC) contribute to saccadic eye movement generat...
The ability of primates to make rapid and accurate saccadic eye movements for exploring the natural ...
The ability of primates to make rapid and accurate saccadic eye movements for exploring the natural ...
The ability of primates to make rapid and accurate saccadic eye movements for exploring the natural ...
AbstractThe ability of primates to make rapid and accurate saccadic eye movements for exploring the ...
graphic organization of signals sent from the frontal eye field to the superior colliculus. J. Neuro...
Neuronal processing in cerebral cortex and signal transmission from cortex to brain stem have been s...
One way we keep track of our movements is by monitoring corollary discharges or internal copies of m...
Many neurons in the frontal eye field (FEF) exhibit visual responses and are thought to play importa...
Perception depends not only on sensory input but also on the state of the brain receiving that input...
We perceive a stable visual world even though saccades often move our retinas. One way the brain may...
Previous studies have identified several cortical regions that show larger BOLD responses during pre...
Our percept of visual stability across saccadic eye movements may be mediated by presaccadic remappi...
Each of our movements activates our own sensory receptors, and therefore keeping track of self-movem...
Perception is dependent not only on sensory input but on the state of the brain receiving that input...