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1 CCAP activated pyloric rhythms in most silent preparatio
2 CCAP affected each of the four functional groups of moto
3 CCAP exposure also actively terminated pre-ecdysis burst
4 CCAP KO animals showed specific defects at ecdysis, yet
5 CCAP seems to activate slow intrinsic oscillations in th
6 CCAP, the largest European protistan culture collection,
13 contrasting cardiac effects of conoCAP-a and CCAP indicate that molluscan CCAP-like peptides have fun
14 activated during pre-ecdysis; EH, CCAP, and CCAP/MIP neurons are active prior to and during ecdysis;
15 ating to neuropeptide surges of both CHH and CCAP were seen during larval hatching, when compared to
16 and bursicon in Onychophora and EH, ETH and CCAP in Tardigrada suggests that the pathway was present
17 ingestion of sugar and water, with IPCs and CCAP neurons oppositely regulating sugar and water inges
26 se ecdysis motor bursts persisted as long as CCAP was present and could be reinduced by successive ap
28 was distinguishable from CCAP and RPCH, but CCAP and RPCH were not distinguishable from each other.
29 (MI) in LG, the parallel G(MI) activation by CCAP reduces the impact of GPR regulation of this conduc
31 e movements were additionally potentiated by CCAP applications to isolated nerve-muscle preparations.
32 hat the functions thought to be subserved by CCAP are partially effected by bursicon, and that bursic
33 ur neuron types in the core pyloric circuit, CCAP and RPCH target the same subset of only two neurons
34 Neurons IN704 in abdominal ganglia coexpress CCAP and MIPs, whose joint actions initiate the ecdysis
36 e for carbohydrates, and Cyclotella cryptica CCAP 1070/2, with utility for EPA production and N-assim
38 eurons are activated during pre-ecdysis; EH, CCAP, and CCAP/MIP neurons are active prior to and durin
40 a pivotal downstream circuit neuron enables CCAP to weaken or eliminate sensory regulation of motor
43 cuit output in PROC was distinguishable from CCAP and RPCH, but CCAP and RPCH were not distinguishabl
46 y when challenged with persisting (hormonal: CCAP) or acute (sensory: GPR neuron) metabotropic influe
52 ts non-fruiting relatives Rosculus 'ithacus' CCAP 1571/3, R. terrestris n. sp. and R. elongata n. sp.
54 n additional cluster composed of four large, CCAP-positive neurons innervates the terminal chamber.
61 However, the CCAP-activated current (I(MI-CCAP)) and MCN1-activated current (I(MI-MCN1)) exhibit d
63 is analogous to recently predicted molluscan CCAP-like preprohormones, and suggests a mechanism for t
64 f conoCAP-a and CCAP indicate that molluscan CCAP-like peptides have functions that differ from those
67 atterns can be initiated by stimulation of N(CCAP), a small network of central neurons that regulates
68 bearing targeted ablations of CCAP neurons (CCAP KO animals) to investigate the role of CCAP in the
69 ance within a defined group of neuropeptide (CCAP) -containing neurons of the ventral nervous system
70 e screen identified Nannochloropsis oceanica CCAP 849/10 and a marine isolate of Chlorella vulgaris C
71 sed Drosophila bearing targeted ablations of CCAP neurons (CCAP KO animals) to investigate the role o
72 prior to and during ecdysis; and activity of CCAP/MIP/bursicon neurons coincides with postecdysis.
73 MI, showed that saturating concentrations of CCAP activated all available IMI in LP, but only approxi
74 rsicon is believed to then act downstream of CCAP to inflate, pigment, and harden the exoskeleton of
78 f this work is that the primary functions of CCAP as well as its importance in the control of ecdysis
81 eased sensitivity to sugar; however, loss of CCAP, or CCAP-R in 2 dorsal median NPF neurons, inhibite
85 ic-clamp manipulations, that the presence of CCAP weakens or eliminates the GPR effect on the gastric
86 to the PD and PY neurons, in the presence of CCAP, and converted the CCAP rhythm into a rhythm that w
88 (CCAP KO animals) to investigate the role of CCAP in the execution and circadian regulation of ecdysi
89 actions have always been placed upstream of CCAP, may also regulate ecdysis independently of CCAP.
90 sitivity to sugar; however, loss of CCAP, or CCAP-R in 2 dorsal median NPF neurons, inhibited sugar s
91 s bearing targeted ablations of either EH or CCAP neurons, or ablations of both together, to reevalua
92 uggest that crustacean cardioactive peptide (CCAP) activates the ecdysis motor program; the hormone b
93 y examining crustacean cardioactive peptide (CCAP) and bursicon circuits, which are similarly develop
96 the hormone crustacean cardioactive peptide (CCAP) and the gastropyloric receptor (GPR) proprioceptor
97 e (ETH) and crustacean cardioactive peptide (CCAP) elicit the first two motor behaviors, the pre-ecdy
99 e (ETH) and crustacean cardioactive peptide (CCAP) evolved in the bilaterian last common ancestor (LC
100 t expresses crustacean cardioactive peptide (CCAP) has been shown previously to make the hormone burs
103 lls (IPCs), crustacean cardioactive peptide (CCAP) neurons, and CCHamide-2 receptor isoform RA (CCHa2
104 function of crustacean cardioactive peptide (CCAP) neurons, either by directly acting on their nicoti
105 peripheral crustacean cardioactive peptide (CCAP) neurons, which potentiate the anterograde beat.
107 europeptide Crustacean cardioactive peptide (CCAP) plays a key role in the initiation of the ecdysis
108 milarity to crustacean cardioactive peptide (CCAP) receptors in insects and mammalian neuropeptide S
109 lin (PROC), crustacean cardioactive peptide (CCAP), and red pigment concentrating hormone (RPCH) acti
110 atostatins, crustacean cardioactive peptide (CCAP), calcitonin-like diuretic hormone, CRF-like diuret
111 respond to crustacean cardioactive peptide (CCAP), corazonin, or adipokinetic hormone (AKH), none of
112 de hormone, crustacean cardioactive peptide (CCAP), modulates the biphasic (protraction/retraction) g
114 peptide Ia, crustacean cardioactive peptide (CCAP), red pigment-concentrating hormone, TNRNFLRFamide,
115 ulting; and crustacean cardioactive peptide (CCAP), which is involved in stereotyped ecdysis behaviou
116 ered that 2 crustacean cardioactive peptide (CCAP)-expressing neurons in Drosophila adults regulate f
123 whereas the native disulfide-bonded peptides CCAP-vil, mu-conotoxin KIIIA, and human insulin were use
124 ical applications e.g. Dunaliella polymorpha CCAP 19/14, significantly the most productive for carboh
125 response of peptidergic neurons that produce CCAP (crustacean cardioactive peptide), which are key ta
126 y Map, Cancer Chromosome Aberration Project (CCAP) pages, Entrez Genomes, Clusters of Orthologous Gro
127 dbSNP, Cancer Chromosome Aberration Project (CCAP), Entrez Genomes and related tools, the Map Viewer,
128 y Map, Cancer Chromosome Aberration Project (CCAP), Entrez Genomes and related tools, the Map Viewer,
129 y Map, Cancer Chromosome Aberration Project (CCAP), Entrez Genomes, Clusters of Orthologous Groups (C
130 y Map, Cancer Chromosome Aberration Project (CCAP), Entrez Genomes, Clusters of Orthologous Groups (C
131 of CCAP, or knocking down the CCAP receptor (CCAP-R) in 2 dorsal median neurons, inhibits the release
134 carbon core metabolic network for D. salina CCAP 19/18 based on the recently published nuclear genom
135 e formation or maintenance of adult-specific CCAP/bursicon cell projections during metamorphosis.
137 tic and optogenetic studies demonstrate that CCAP signaling is necessary and sufficient to stimulate
138 ynamic-clamp manipulations to establish that CCAP prolongs the gastric mill protractor (LG) phase and
144 , in the presence of CCAP, and converted the CCAP rhythm into a rhythm that was statistically similar
145 Notably, loss of CCAP, or knocking down the CCAP receptor (CCAP-R) in 2 dorsal median neurons, inhib
146 in the CNS; by autocrine influences from the CCAP neurons themselves; and by inhibitory actions media
148 sing number of fully sequenced protists, the CCAP is striving to provide targeted services and suppor
155 lepidopteran pupal ecdysis directly through CCAP neurons or by activating their upstream efferent in
156 bset had previously been shown to respond to CCAP with the activation of a modulator-activated inward
158 concentration dependence of IMI responses to CCAP application in two identified neurons, the lateral
160 flies, in which most of the 50 neurons were CCAP-IR, although none showed increases in cGMP at ecdys
165 ion that innervates swimmerets, neurons with CCAP-like immunoreactivity sent processes to the lateral