The mammalian motor cortex typically innervates motor neurons indirectly via oligosynaptic pathways. However, evolution of skilled digit movements in humans, apes, and some monkey species is associated with the emergence of abundant monosynaptic cortical projections onto spinal motor neurons innervating distal limb muscles. Rats perform skilled movements with their whiskers, and we examined the possibility that the rat vibrissa motor cortex (VMC) projects monosynaptically onto facial motor neurons controlling the whisker movements. First, single injections of lentiviruses to VMC sites identified by intracortical microstimulations were used to label a distinct subpopulation of VMC axons or presynaptic terminals by expression of enhanced gree...
Rodents begin to use bilaterally coordinated, rhythmic sweeping of their vibrissae (“whisking”) for ...
Mice can gather tactile sensory information by actively moving their whiskers to palpate objects in ...
Cortical feed-back projections to primary sensory areas terminate most heavily in layer (L) 11,2, wh...
The mammalian motor cortex typically innervates motor neurons indirectly via oligosynaptic pathways....
The rodent facial nucleus (FN) comprises motoneurons (MNs) that control the facial musculature. In t...
The rodent vibrissal system offers an ideal model for studying sensory-motor pathways in the mammali...
SummaryIn the rodent vibrissal system, active sensation and sensorimotor integration are mediated in...
The rodent facial nucleus (FN) comprises motoneurons (MNs) that control the facial musculature. In t...
In this article we discuss the experimental advantages that the vibrissal motor system offers for an...
The motor systems of the mammalian brain are a remarkable product of many millions of years of evolu...
The rodent vibrissal system offers an ideal model for studying sensory-motor pathways of the central...
The superior colliculus (SC) is an essential structure for the control of eye movements. In rodents,...
The rodent facial nucleus (FN) comprises motoneurons (MNs) that control the facial musculature. In t...
SummaryRodents begin to use bilaterally coordinated, rhythmic sweeping of their vibrissae (“whisking...
SummaryExploratory whisking in rat is an example of self-generated movement on multiple timescales, ...
Rodents begin to use bilaterally coordinated, rhythmic sweeping of their vibrissae (“whisking”) for ...
Mice can gather tactile sensory information by actively moving their whiskers to palpate objects in ...
Cortical feed-back projections to primary sensory areas terminate most heavily in layer (L) 11,2, wh...
The mammalian motor cortex typically innervates motor neurons indirectly via oligosynaptic pathways....
The rodent facial nucleus (FN) comprises motoneurons (MNs) that control the facial musculature. In t...
The rodent vibrissal system offers an ideal model for studying sensory-motor pathways in the mammali...
SummaryIn the rodent vibrissal system, active sensation and sensorimotor integration are mediated in...
The rodent facial nucleus (FN) comprises motoneurons (MNs) that control the facial musculature. In t...
In this article we discuss the experimental advantages that the vibrissal motor system offers for an...
The motor systems of the mammalian brain are a remarkable product of many millions of years of evolu...
The rodent vibrissal system offers an ideal model for studying sensory-motor pathways of the central...
The superior colliculus (SC) is an essential structure for the control of eye movements. In rodents,...
The rodent facial nucleus (FN) comprises motoneurons (MNs) that control the facial musculature. In t...
SummaryRodents begin to use bilaterally coordinated, rhythmic sweeping of their vibrissae (“whisking...
SummaryExploratory whisking in rat is an example of self-generated movement on multiple timescales, ...
Rodents begin to use bilaterally coordinated, rhythmic sweeping of their vibrissae (“whisking”) for ...
Mice can gather tactile sensory information by actively moving their whiskers to palpate objects in ...
Cortical feed-back projections to primary sensory areas terminate most heavily in layer (L) 11,2, wh...