Memory recall involves a transient break in excitatory-inhibitory balance.
The brain has a remarkable capacity to acquire and store memories that can later be selectively recalled. How nerve cells work together for selective memory recall is unclear. We show in humans that memory recall involves brief changes in the balance between different types of signalling (‘excitation’ and ‘inhibition’) in a brain area called sensory cortex. These changes are predicted by activity in another brain region called the hippocampus.
Scientific Abstract
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Memory recall involves a transient break in excitatory-inhibitory balance.
The brain has a remarkable capacity to acquire and store memories that can later be selectively recalled. How nerve cells work together for selective memory recall is unclear. We show in humans that memory recall involves brief changes in the balance between different types of signalling (‘excitation’ and ‘inhibition’) in a brain area called sensory cortex. These changes are predicted by activity in another brain region called the hippocampus.
Scientific Abstract
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