AbstractAnatomical rearrangement of retinogeniculate connections contributes to the refinement of synaptic circuits in the developing visual system, but the underlying changes in synaptic function are unclear. Here, we study such changes in mouse brain slices. Each geniculate cell receives a surprisingly large number of retinal inputs (>20) well after eye-specific zones are formed. All but one to three of these inputs are eliminated over a 3-week period spanning eye opening. Remaining inputs are strengthened ∼50-fold, in part through an increase in quantal size, but primarily through an increase in the number of release sites. Changes in release probability do not contribute significantly. Thus, a redistribution of release sites from many i...
The dorsal lateral geniculate nucleus (dLGN) of the mouse has emerged as a model system in the study...
AbstractThe retinal synaptic network continues its maturational refinement after eye opening in mamm...
Complex neural circuits in the mammalian brain develop through a combination of genetic instruction ...
A hallmark of mammalian neural circuit development is the refinement of initially imprecise connecti...
SummarySensory experience and spontaneous activity play important roles in development of sensory ci...
Abstract Background Neurons receive excitatory synaptic inputs that are distributed across their den...
AbstractThe retinal synaptic network continues its maturational refinement after eye opening in mamm...
<div><p>Neuronal output requires a concerted balance between excitatory and inhibitory (I/E) input. ...
SummaryActivity-dependent refinement of neural circuits is a fundamental principle of neural develop...
The brain is composed of many anatomically distinct areas that control different functions. A common...
SummaryMammalian sensory circuits become refined over development in an activity-dependent manner. R...
The primary image-forming pathway in the mammalian visual system relays information from photorecept...
The dorsal lateral geniculate nucleus (dLGN) of the mouse has emerged as a model system in the study...
Neuronal activity, both intrinsically generated and sensory-evoked, is known to play an important ro...
It has been of interest whether and when the rearrangement of neuronal circuits can be induced after...
The dorsal lateral geniculate nucleus (dLGN) of the mouse has emerged as a model system in the study...
AbstractThe retinal synaptic network continues its maturational refinement after eye opening in mamm...
Complex neural circuits in the mammalian brain develop through a combination of genetic instruction ...
A hallmark of mammalian neural circuit development is the refinement of initially imprecise connecti...
SummarySensory experience and spontaneous activity play important roles in development of sensory ci...
Abstract Background Neurons receive excitatory synaptic inputs that are distributed across their den...
AbstractThe retinal synaptic network continues its maturational refinement after eye opening in mamm...
<div><p>Neuronal output requires a concerted balance between excitatory and inhibitory (I/E) input. ...
SummaryActivity-dependent refinement of neural circuits is a fundamental principle of neural develop...
The brain is composed of many anatomically distinct areas that control different functions. A common...
SummaryMammalian sensory circuits become refined over development in an activity-dependent manner. R...
The primary image-forming pathway in the mammalian visual system relays information from photorecept...
The dorsal lateral geniculate nucleus (dLGN) of the mouse has emerged as a model system in the study...
Neuronal activity, both intrinsically generated and sensory-evoked, is known to play an important ro...
It has been of interest whether and when the rearrangement of neuronal circuits can be induced after...
The dorsal lateral geniculate nucleus (dLGN) of the mouse has emerged as a model system in the study...
AbstractThe retinal synaptic network continues its maturational refinement after eye opening in mamm...
Complex neural circuits in the mammalian brain develop through a combination of genetic instruction ...