Peptidergic co-transmission in Aplysia: functional implications for rhythmic behaviors.
about
Generalization of habituation and intrinsic sensitization in the leech.Small cardioactive peptide gene: structure, expression and mass spectrometric analysis reveals a complex pattern of co-transmitters in a snail feeding neuron.PRQFVamide, a novel pentapeptide identified from the CNS and gut of Aplysia.Early evolutionary origin of the neurotrophin receptor family.Feedback from peripheral musculature to central pattern generator in the neurogenic heart of the crab Callinectes sapidus: role of mechanosensitive dendrites.Composite modulatory feedforward loop contributes to the establishment of a network statePRODUCTION OF NITRIC OXIDE WITHIN THE APLYSIA CALIFORNICA NERVOUS SYSTEM.Neurotransmitters and neuropeptides in the brain of the locust.Motor neuronal activity varies least among individuals when it matters most for behavior.Preparing the periphery for a subsequent behavior: motor neuronal activity during biting generates little force but prepares a retractor muscle to generate larger forces during swallowing in Aplysia.cAMP-dependent phosphorylation of Aplysia twitchin may mediate modulation of muscle contractions by neuropeptide cotransmitters.Neuromodulation of neuronal circuits: back to the futureRelease of a single neurotransmitter from an identified interneuron coherently affects motor output on multiple time scales.State dependence of network output: modeling and experiments.The peptide hormone pQDLDHVFLRFamide (crustacean myosuppressin) modulates the Homarus americanus cardiac neuromuscular system at multiple sites.Evolving concepts of arousal: insights from simple model systems.Colocalization of gamma-aminobutyric acid-like immunoreactivity and catecholamines in the feeding network of Aplysia californica.Mechanisms involved in persistent facilitation of neuromuscular synapses in aplysia.Multiple presynaptic and postsynaptic sites of inhibitory modulation by myomodulin at ARC neuromuscular junctions of Aplysia.Modulation of an integrated central pattern generator-effector system: dopaminergic regulation of cardiac activity in the blue crab Callinectes sapidus.Rapid dopaminergic signaling by interneurons that contain markers for catecholamines and GABA in the feeding circuitry of Aplysia.Regulation of the crab heartbeat by FMRFamide-like peptides: multiple interacting effects on center and periphery.Regulation of the crab heartbeat by crustacean cardioactive peptide (CCAP): central and peripheral actions.Modulation of fictive feeding by dopamine and serotonin in aplysia.Substrates for Neuronal Cotransmission With Neuropeptides and Small Molecule Neurotransmitters in Drosophila.Natural neural output that produces highly variable locomotory movements.Different motor neuron spike patterns produce contractions with very similar rises in graded slow muscles.Slow temporal filtering may largely explain the transformation of stick insect (Carausius morosus) extensor motor neuron activity into muscle movement.The neuromuscular transform: the dynamic, nonlinear link between motor neuron firing patterns and muscle contraction in rhythmic behaviors.Modulation of radula opener muscles in Aplysia.
P2860
Q30500376-CC3883A6-5B5A-4517-8037-9590A5729082Q30650692-D7E42B0C-C1EB-4B8B-BF7D-2B823CC56A7CQ31133886-1BE2CB57-6961-49BD-8391-1DBE0A8BF6DDQ32066113-D3893232-FE2A-40B1-A8EE-1B713293AD82Q33593644-38CFF6C9-3B65-4A7A-A713-389291B02698Q33783724-205D7C3F-12AA-4029-AA20-B6FAFD2AD864Q33894351-058ECB1E-3B75-46E6-9299-4953BA446473Q34505746-C129CFAC-5982-4384-A4B1-889754DC7D1DQ35034947-35FE6168-DF83-427B-9DC7-349EC0CE2AA3Q35316271-2A0630B7-4EEB-42F3-86AD-6679550292A0Q35719139-4997E48B-CAA0-4945-9902-C8BD04963270Q36350226-3453FEDD-8821-4011-B4A4-5F40A53B0968Q36838416-D2870CA1-A3B4-4242-813E-A7F69CE04A7AQ37324004-424DFA10-AB71-4EAC-97C7-8DBCD7B592B0Q37444542-720AFCE1-9355-45D7-924C-70E562F9A0BCQ37732192-C8BFEA95-66FC-4365-B241-C911388D07D9Q43916454-791FD09C-41C9-4190-83CF-F4F432A7B836Q43945362-2869DF47-B12A-4D07-9FC4-85A542FEECBAQ44355465-1143EF85-1828-4381-B1F2-3124C5FF86F6Q45007565-96C81A63-A11C-44EF-9DA0-45B368488C66Q45146916-5DAC9341-F60F-46BE-A9FB-1F91960CA3CCQ50465218-ED7B02CA-B2E2-4BCD-A57E-4887D151D30AQ50471705-C954B483-B398-4018-A337-9AE111E1F196Q52029859-70B67824-3CEB-4229-8097-18980702B2B9Q52322928-1A36F342-DEA8-4849-9006-418433C9A9DDQ52669052-48B9E1BB-1D33-43DF-8E27-398AF3981775Q52675093-B019128A-4464-41E6-BE04-D2D40194F30EQ52681362-C7B98A7B-E420-4A71-BA58-7ACECB879CFBQ52893645-0B5ADDC2-4971-424C-90E5-54179F790210Q53925363-6E30F904-7AC5-42CC-848D-2736DB54D210
P2860
Peptidergic co-transmission in Aplysia: functional implications for rhythmic behaviors.
description
1992 nî lūn-bûn
@nan
1992年の論文
@ja
1992年論文
@yue
1992年論文
@zh-hant
1992年論文
@zh-hk
1992年論文
@zh-mo
1992年論文
@zh-tw
1992年论文
@wuu
1992年论文
@zh
1992年论文
@zh-cn
name
Peptidergic co-transmission in Aplysia: functional implications for rhythmic behaviors.
@ast
Peptidergic co-transmission in Aplysia: functional implications for rhythmic behaviors.
@en
type
label
Peptidergic co-transmission in Aplysia: functional implications for rhythmic behaviors.
@ast
Peptidergic co-transmission in Aplysia: functional implications for rhythmic behaviors.
@en
prefLabel
Peptidergic co-transmission in Aplysia: functional implications for rhythmic behaviors.
@ast
Peptidergic co-transmission in Aplysia: functional implications for rhythmic behaviors.
@en
P2093
P356
P1433
P1476
Peptidergic co-transmission in Aplysia: functional implications for rhythmic behaviors.
@en
P2093
E C Cropper
I Kupfermann
M W Miller
S L Hooper
W C Probst
P304
P356
10.1007/BF01928164
P577
1992-05-01T00:00:00Z