Neural networks
play a critical role in establishing constraints on excitability in the central
nervous system. Several recent studies have suggested that network dysfunction
in the brain and spinal cord are compromised
following insult by a neurodegenerative trigger and might
precede eventual neuronal loss and neurological impairment.
Early
intervention of network excitability and plasticity might therefore be critical
in resetting hyperexcitability and preventing later neuronal damage.
Here, the
behavior of neurons that generate burst firing upon recovery from inhibitory
input or intrinsic membrane hyperpolarization (rebound neurons) is examined in
the context of neural networks that underlie rhythmic activity observed in
areas of the brain and spinal cord that are vulnerable to neurodegeneration.
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