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1 cular trafficking and trap AMPARs inside the dendritic shaft.
2 not be induced at extrasynaptic sites on the dendritic shaft.
3 and, less frequently, near synapses onto the dendritic shaft.
4 nuous with each other and with the ER of the dendritic shaft.
5 on and forms patch-like structures along the dendritic shaft.
6 necting the synapse on the spine head to the dendritic shaft.
7 litudes are similar to those observed in the dendritic shaft.
8 significant enrichment of PSD-95-GFP on the dendritic shaft.
9 vesicular fusion events in the cell body and dendritic shaft.
10 of inhibitory synapses made directly on the dendritic shaft.
11 ic cytoskeletal protein enriched in neuronal dendritic shafts.
12 f tyrosine-phosphorylated NR2B subunit along dendritic shafts.
13 y inputs occur on dendritic spines, avoiding dendritic shafts.
14 onto dendritic spines and less commonly onto dendritic shafts.
15 proximal dendritic shafts to thinner distal dendritic shafts.
16 ype neurons they are still mostly located in dendritic shafts.
17 ic to asymmetrical contacts on interneuronal dendritic shafts.
18 cal and most synapses (71%) were formed onto dendritic shafts.
19 dendritic shafts, and (4) the plasmalemma of dendritic shafts.
20 e remaining axons synapse with glutamatergic dendritic shafts.
21 re greater in dendritic growth cones than in dendritic shafts.
22 ns than P axons make synapses with GABAergic dendritic shafts.
23 n-GFP (phosphorylation-mimic) accumulated in dendritic shafts.
24 of the within-stripe terminals synapsed with dendritic shafts.
25 located, or to multiple spines and adjacent dendritic shafts.
26 t inhibitory synapses mainly on the soma and dendritic shafts.
27 spines and to a lesser extent in somata and dendritic shafts.
28 of dendritic spines and with microtubules in dendritic shafts.
29 ses were formed with spines rather than with dendritic shafts.
30 synapses were unlabeled perikarya and M2R(+) dendritic shafts.
31 ed on spines and the remainder are formed on dendritic shafts.
32 profiles of KCs, others were made onto their dendritic shafts.
33 most of which on the cell body and proximal dendritic shafts.
34 end transiently (mean lifetime 9.5 min) from dendritic shafts.
35 pses onto dendritic spines and small caliber dendritic shafts.
36 synapses established on dendritic spines and dendritic shafts.
37 d 4 (3%) were in synaptic contact with small dendritic shafts.
38 ndent degradation of the protein residing in dendritic shafts.
39 are made on dendritic spines, rather than on dendritic shafts.
40 artmental organization of dendritic Golgi in dendritic shafts.
41 complex and colocalizes with PlexinA1 along dendritic shafts.
42 symmetrical synapses were M1R+ perikarya and dendritic shafts.
43 contained long actin filaments running along dendritic shafts.
44 resent in a subset of spines, in addition to dendritic shafts.
45 dritic spines, a substantial number ended on dendritic shafts.
46 d IX terminals synapsed more frequently with dendritic shafts.
47 were with spines, but at least 10% were with dendritic shafts.
48 s and 40 (15%) were asymmetric synapses onto dendritic shafts.
49 s and 22 (10%) were asymmetric synapses onto dendritic shafts.
50 scicular nucleus (PF), which terminated onto dendritic shafts.
51 modate excitatory contacts directly on their dendritic shafts?
54 referred dendritic spines (69.2 +/- 4.2%) to dendritic shafts (30.8 +/- 4.2%) as postsynaptic targets
55 nnervated mainly somata (49.9 +/- 13.8%) and dendritic shafts (45.2 +/- 10.7%) and, to a lesser exten
57 el, GluD1-IR was preferentially expressed in dendritic shafts (47.9 +/- 1.2%), followed by glia (37.7
58 n = 5) established synapses predominantly on dendritic shafts (84.3 +/- 9.4%) and less frequently on
59 idum, spinophilin is occasionally present in dendritic shafts adjacent to gamma-aminobutyric acid-con
61 etween Cx3cr1-deficient microglia and abGCs' dendritic shafts, along with increased proportion of mic
63 ns from both sexes, tSNARE1 localized to the dendritic shaft and dendritic spines, supporting a role
67 nits, coupling synaptic contact sites to the dendritic shaft and often harbor a spine apparatus organ
69 ar domain of integrin receptors expressed in dendritic shaft and spine postsynaptic densities (DSPSD)
70 s along with increased caspase 3 cleavage in dendritic shaft and spines in response to oligomycin A.
72 ows a variable level of expression along the dendritic shaft and within dendritic spines, which sugge
73 midal neurons were labeled, and about 90% of dendritic shafts and 60% of dendritic spines were M1R+.
75 ith mislocation of glutamatergic synapses on dendritic shafts and a reduction of spontaneous glutamat
76 AR GluA1 subunit (sGluA1) in both spines and dendritic shafts and a small increase in spine size rela
77 cells exhibited abnormal focal swellings of dendritic shafts and disruptions in axon initial segment
79 he postsynaptic density and was expressed in dendritic shafts and in peri-Golgi regions in the neuron
81 found that 4EGI-1 depleted polyribosomes in dendritic shafts and selectively prevented their upregul
83 termined, their preferential localization to dendritic shafts and spine heads coupled with their abil
84 cipally on extrasynaptic plasma membranes of dendritic shafts and spines and more rarely were associa
86 -tracing methods that mGluR5 is localized to dendritic shafts and spines in the lateral nucleus of th
89 Akt (pAkt)-immunoreactivity (-IR) within the dendritic shafts and spines of pyramidal neurons in youn
90 microscopy to produce 3D reconstructions of dendritic shafts and spines to characterize synaptic con
91 The spatial gradient of type II PKA between dendritic shafts and spines was critical for the regulat
92 pre- (axons and terminals) and postsynaptic (dendritic shafts and spines) profiles in the stratum rad
93 nd membrane-associated pools of EAAC1 within dendritic shafts and spines, as well as in a subset of a
94 al terminals formed asymmetric synapses with dendritic shafts and spines, but were not BDNF immunorea
96 reactive O-LMCs, innervating the most distal dendritic shafts and spines, evoked the smallest amplitu
97 l analysis showed that compared with labeled dendritic shafts and spines, labeled axon terminals have
98 microscopic level was due to the staining of dendritic shafts and spines, most of which probably belo
99 ed both asymmetric and symmetric synapses on dendritic shafts and spines, suggesting that ERalphas ar
109 aturation, EphA7 influences protrusions from dendritic shafts and the assembling of synaptic componen
110 ed dendritic spines and binds selectively to dendritic shafts and to spine postsynaptic densities and
111 s), sGC immunostaining was located mainly in dendritic shafts and was only occasionally associated wi
112 spines, but a significant number of labeled dendritic shafts and, less frequently, glia and pretermi
113 ticula and polyribosomes in the cytoplasm of dendritic shafts, and (4) the plasmalemma of dendritic s
114 ing inhibitory-type synapses onto somata and dendritic shafts, and excitatory-type terminals likely t
115 y approximately 20% of synapses are found on dendritic shafts, and in the adult shaft synapses are ve
116 re symmetrical and contacted spines, somata, dendritic shafts, and occasionally other axonal terminal
119 er, postsynaptic densities were preserved on dendritic shafts, and the strength of excitatory synapti
124 expression was found in somata and along the dendritic shaft, but FLNa was not detected in dendritic
125 f exocytic insertion occurred throughout the dendritic shaft, but remarkably, neither mode of inserti
126 -containing vesicles along the length of the dendritic shaft by modulating the rheological properties
128 y induces focal swelling (beading) along the dendritic shaft by unidentified molecular mechanisms.
130 d brain, about half of the synapses occur on dendritic shafts, by 3 weeks of age only approximately 2
132 rtactin redistributes rapidly from spines to dendritic shaft, correlating with remodeling of the acti
134 ply frequent membrane fusion events into the dendritic shaft domain immediately adjacent to (<300 nm
135 transient events occurring in the adjoining dendritic shaft, driven apparently by mass action and sh
137 must sustain higher depolarizations than do dendritic shafts during excitatory postsynaptic potentia
139 egration of electrical signals in spines vs. dendritic shafts from basal dendrites of mouse layer 5 p
140 ous head and small neck that connects to the dendritic shaft, has been shown to facilitate compartmen
141 te receptors at excitatory synapses on their dendritic shafts in spite of abundant expression of the
143 roportion of putative inhibitory synapses on dendritic shafts in the right MePD of females in proestr
144 lso impact Ca(2+) signaling in the adjoining dendritic shaft, in a zone centered on the spine-shaft j
145 acted gamma-aminobutyric acid-immunoreactive dendritic shafts, including the subpopulation that conta
146 ed translocation of GluR1 receptors from the dendritic shaft into spines, but it was not required for
148 ace, but not for receptor transport from the dendritic shaft into the spine compartment or for delive
149 have shown that microtubules polymerize from dendritic shafts into spines and that signaling through
150 erins and the actin cytoskeleton, moves from dendritic shafts into spines upon depolarization, increa
151 l and electrotonic coupling of spines to the dendritic shaft is crucial to understanding neuronal int
153 0S6K appeared as discrete compartments along dendritic shafts like the hotspots for fast dendritic tr
155 The remaining postsynaptic structures were dendritic shafts, many of which had the morphological ch
157 shed a low density of synaptic contacts onto dendritic shafts, neuronal somata, and occasional dendri
159 g studies reveal Abeta activates NgRs on the dendritic shaft of neurons, triggering an inhibition of
160 tly, Lfc was found to be concentrated in the dendritic shafts of cultured hippocampal neurons under c
162 ls, while layer IV axons terminate mainly on dendritic shafts of glutamatergic cells; 3) K axons have
163 PA- and NMDA-type glutamate receptors on the dendritic shafts of hippocampal interneurons but are ine
165 ely 20-30% formed mostly large synapses with dendritic shafts of presumed inhibitory neurons in the u
166 incipal BLA neurons, while 10% contacted the dendritic shafts of presumed interneurons, half of which
168 y within the neuropil, (2) the properties of dendritic shafts of PV-IR interneurons, (3) Type II PV-I
171 dia located on the dendritic tips versus the dendritic shafts of the same developing motoneuron.
174 s stubby protrusions from single synapses on dendritic shafts or from retracting filopodia, many of w
175 th TH+ and DA+ terminals typically contacted dendritic shafts or the necks of dendritic spines, but a
176 the lateral LP nucleus contact small-caliber dendritic shafts outside of glomeruli (60 of 82; 73%).
177 ease in phospho-ERK immunoreactivity in wavy dendritic shafts over the same period suggested a relati
178 ostsynaptic side of excitatory synapses onto dendritic shafts, overlapping clusters of PSD-95 and NMD
179 mmal surface near postsynaptic densities; in dendritic shafts, p75NTR labeling was associated with mi
181 of glutamatergic synapses to be localized on dendritic shafts, rather than on spines as occurs in wil
182 Dendritic spines, small protrusions from dendritic shafts, receive most of the excitatory synapse
183 analyses revealed that the great majority of dendritic shafts receiving cholinergic inputs were CAMK(
185 ly correlated with changes in spine size and dendritic shaft sGluA1 intensity following whisker stimu
186 n the CNS contact dendritic spines, avoiding dendritic shafts, so spines must play a key role for neu
187 receptors, i.e. the NMDA-R1, co-exist within dendritic shafts, spines and terminals of the adult rat
189 oplasmic reticulum of neuronal perikarya and dendritic shafts, synaptic specializations in dendritic
191 Dendritic spines are small protrusions from dendritic shafts that contain the postsynaptic sites of
192 ar layer, 4% of VAChT-ir terminals contacted dendritic shafts that were also contacted by MOR-ir term
193 FC terminals formed asymmetric synapses onto dendritic shafts that were immunoreactive for either TH
194 rm bouton-like specializations directly onto dendritic shafts, that dendritic protrusions primarily a
195 cted spines to relay a calcium signal to the dendritic shaft, the calcium-induced calcium release fro
196 17 co-localizes with Syntaxin-4 in the soma, dendritic shaft, the tips of developing hippocampal neur
197 ricosities making asymmetrical synapses with dendritic shafts throughout the lateral geniculate nucle
198 portant means for signaling from synapses to dendritic shafts to recruit AMPA receptors into synapses
200 reases as one proceeds from thicker proximal dendritic shafts to thinner distal dendritic shafts.
201 ation of a subpopulation of MAP2, present in dendritic shafts, to spines following LTP stimulation.
202 e typically straight trajectories of primary dendritic shafts were disrupted, whereas the diameter of
203 drites in the horizontal plane, since longer dendritic shafts were visible in horizontal sections.
204 Dendritic spines are tiny protrusions on dendritic shafts where most excitatory synapses are loca
205 itic filopodia emerged from densities in the dendritic shaft, which by electron microscopy contained
206 saline, the density of labeling decreased in dendritic shaft while increasing in spine heads, implyin
207 microtubules are enriched in the core of the dendritic shaft, while tyrosinated microtubules are enri
208 the majority of postsynaptic structures were dendritic shafts whose neurons of origin were not identi
209 uced 45.9% on dendritic spines, and 56.7% on dendritic shafts with KO of the alpha4 subunit, as compa
212 -containing synapses are found aligned along dendritic shafts within the stratum lucidum of CA3.
213 een excitatory synapses on spines and on the dendritic shaft, without affecting the total number of s