scispace - formally typeset
Search or ask a question

Answers from top 10 papers

More filters
Papers (10)Insight
Our findings support the view that intermingled neurons in primary sensory areas send specific stimulus features to different parts of the brain.
Our results indicate that most (96%) neurons responded to multiple phases of the task.
These results reveal concurrent representations of movement and choice in neurons widely distributed across the brain.
Topographical considerations and receptive field properties allowed us to conclude that the medial part of the field 7 (included type 2 neurons) is functionally equivalent to the area V4 in the cortex of primates, while the lateral part (type 1 neurons) may correspond to the area V4T.
Thus in the early postnatal occipital cortex the neurons which project through the pyramidal tract constitute a population of cells which is separate from neurons which make cortico-cortical connections, but which largely overlaps with the population of corticotectal and corticopontine neurons.
Thus, larger bodies do not uniformly come with more neurons - but they do fairly uniformly come with larger neurons in the rest of brain, which contains a number of structures directly connected to sources or targets in the body.
The wiring of the brain is almost as important as the number of neurons in the brain at birth, as this will ensure the preservation of those of most use.
Observations suggest that in the human brain the proportion of medium‐sized aspiny neurons and small neurons may be greater than in other species.
Our results suggest that the coding specificity of individual neurons extends to the local circuits of which they are part.
We report a much wider distribution and greater numbers of LHRH neurons than have been previously described in the human brain.