コーパス検索結果 (1語後でソート)
通し番号をクリックするとPubMedの該当ページを表示します
1 lammation in-vivo that involve more than one TRP channel.
2 which is reminiscent of other heat-activated TRP channels.
3 aled as pivotal for allosteric activation in TRP channels.
4 ies that are important for the activation of TRP channels.
5 tion of cysteine residues on multiple Ca(2+) TRP channels.
6 ical modulation exhibited by TRPV1 and other TRP channels.
7 families of sensory proteins--rhodopsins and TRP channels.
8 ne lipids modulate other "receptor-operated" TRP channels.
9 lgesic properties, at least in part, via the TRP channels.
10 rations sufficient for activation of sensory TRP channels.
11 indeed forms the main intracellular gate in TRP channels.
12 f TRPV2 and may play a similar role in other TRP channels.
13 mental evidence supporting this mechanism in TRP channels.
14 sease (ADPKD), belongs to the superfamily of TRP channels.
15 B), a synthetic chemical that modulates many TRP channels.
16 29 ankyrin repeats, the largest number among TRP channels.
17 ar basis for the voltage-dependent gating of TRP channels.
18 C) is attenuated by antagonists of mGluR1 or TRP channels.
19 repertoire of sensory modalities mediated by TRP channels.
20 coded by norpA is critical for activation of TRP channels.
21 ylalanines found in all known subfamilies of TRP channels.
22 n that colocalizes to rhabdomeres along with TRP channels.
23 d gating of these and other thermo-sensitive TRP channels.
24 explain the large temperature sensitivity of TRP channels.
25 ared and unique features compared with other TRP channels.
26 sensitivity common to other thermosensitive TRP channels.
27 alling components, such as STIM proteins and TRP channels.
28 ividual cells expressing genetically encoded TRP channels.
29 crease in the calcium flow through activated TRP channels.
30 expression of transient receptor potential (TRP) channels.
31 the opening of transient receptor potential (TRP) channels.
32 ct upstream of transient receptor potential (TRP) channels.
33 bfamily of the transient receptor potential (TRP) channels.
34 tor of certain transient receptor potential (TRP) channels.
35 s that result from overactive or underactive TRP channels?
42 Despite intensive study, the mechanisms of TRP channel activation by chemical or physical stimuli r
43 hannels, facilitates better understanding of TRP channel activation, and provides insights into the m
44 t a PLCbeta derivative that does not promote TRP channel activation, still contributes to signaling i
49 of 5,6-EET to transient receptor potential (TRP) channel activation in nociceptor neurons and its co
52 s is regulated by a thermosensitive membrane TRP channel and the DAF-16/FOXO transcription factor, bu
53 ral architecture for this major subfamily of TRP channels and a well-defined calcium-binding site wit
54 coveries were made, few would have suspected TRP channels and astrocytes could contribute significant
56 Here I discuss the recent developments on TRP channels and astrocytes that have made us aware of t
59 st distinct roles of resolvins in regulating TRP channels and identify RvD2 as a potent endogenous in
60 suggest that most structural elements within TRP channels and Kv channels are not sufficiently relate
61 diovascular system, and interactions between TRP channels and other proteins involved in mechanoelect
62 mer 1 functions as an important scaffold for TRP channels and regulates mechanotransduction in skelet
63 erone and provide a mechanistic link between TRP channels and their GPCRs during biosynthesis and tra
64 ficity for TRPM3 compared with other sensory TRP channels, and blocked PregS-induced intracellular fr
65 ture analysis unveiled the modular design of TRP channels, and electrophysiological experiments condu
66 Macrophages express at least 3 different TRP channels, and the properly balanced activation of al
67 a drug that targets two functionally-related TRP channels, and thus can be used to combat isoforms of
68 mediated by a transient receptor potential (TRP) channel, and RT-PCR was used to confirm expression
69 bited by PIP2; where does PIP2 interact with TRP channels; and is the mechanism of modulation conserv
70 e is a transition from AP to CP, after which TRP channel antagonism is ineffective, and thus (3) that
73 e, and thus (3) that early intervention with TRP channel antagonists may attenuate the transition to
74 ine and were antagonized by the nonselective TRP channel antagonists Ruthenium Red and gadolinium, bu
79 poral resolution of neuronal activation when TRP channels are activated by ambient temperature variat
81 thesis that in low extracellular calcium the TRP channels are dilating, and as a consequence open cha
85 of the core functional features of metazoan TRP channels are present in Cr-TRP1, suggesting that bas
88 the driving force for Ca(2+) entry, and some TRP channels are required for proliferation and migratio
91 hether sensory transient receptor potential (TRP) channels are a molecular target for apomorphine.
97 cts to humans, transient receptor potential (TRP) channels are key transducers of thermal, chemical a
98 ts to mammals, transient receptor potential (TRP) channels are known mediators for cellular sensing.
107 licate certain transient receptor potential (TRP) channels as a therapeutic target along with metabot
108 nary tuning of transient receptor potential (TRP) channels as thermosensors in the vertebrate nervous
110 ously unknown proteins, which we have named "TRP channel-associated factors" (TCAFs), as new TRPM8 pa
112 receptors as well as calcium influx through TRP channels, axon repulsion is mediated by TRP channels
117 m (Ca(2+)) and transient receptor potential (Trp) channels, but not sodium (Na(+)) channels or ligand
118 ight-sensitive transient receptor potential (TRP) channel by modulating the levels of dihydrosphingos
119 neuron excitability via actions on multiple TRP channels can contribute to the anti-inflammatory eff
126 nnels, such as transient receptor potential (TRP) channels, contribute to changes in Ca(2+) by modula
127 This suggests that cross-sensitization of TRP channels contributes to enhanced pain sensitivity in
129 in freshly isolated mouse tissues and led to TRP channel-dependent release of proinflammatory neurope
131 hysiology that transient receptor potential (TRP) channel dephosphorylation at a specific site is a f
136 Here, we review the emerging evidence that TRP channels, especially TRPCs, are critical regulators
137 so robustly activated by CFA1, whereas other TRP channels expressed by airway sensory neurons and lun
138 and excitation-contraction coupling; hence, TRP channels expressed in the heart most likely coordina
139 he extent of inflammation, pancreatic neuron TRP channel expression and function and excitability, an
140 In this study, we investigated functional TRP channel expression in human odontoblast-like cells a
144 key step in vision, expands the role of the TRP channel family in sensory perception, and presents i
145 opposing effects chloroform has on different TRP channel family members, the findings of this study p
146 ere, we found that a member of the canonical TRP channel family, TRPC3, is highly expressed in MRGPRD
148 ed the role of transient receptor potential (TRP) channel family members in mediating chloroform acti
149 associate with transient receptor potential (TRP) channel family proteins to form functionally import
150 ovided high-resolution structural details of TRP channel fragments although it fails to explain how t
152 we examine the effect of several ligands on TRP channel function and the evidence regarding their me
153 excessively cool temperatures also requires TRP channel function, and whether warm and cool avoidanc
157 ducing thermosensitivity can be critical for TRP channel functional diversification, facilitating the
160 re present in Cr-TRP1, suggesting that basic TRP channel gating characteristics evolved early in the
162 To identify amino acid residues crucial for TRP channel gating, we developed an unbiased, high-throu
165 nnel; and (ii) electron microscopy of entire TRP channels has yielded low-resolution images that prov
166 ubunit of most transient receptor potential (TRP) channels has an additional TRP-domain helix with an
174 al properties and the mechanism of action in TRP channels, high-resolution three-dimensional structur
176 s from mice lacking TRPM1 receptors, another TRP channel implicated in retinal function, revealed the
177 ing evidence demonstrates important roles of TRP channel in controlling vascular function including e
182 expressed wild-type or specifically mutated TRP channels in human embryonic kidney cells and used ca
185 AP (AP), we studied the involvement of these TRP channels in pancreatic inflammation and pain-related
186 hat chemosensing of this dietary molecule by TRP channels in the endothelium promotes arterial relaxa
188 by microOR activation, much more than other TRP channels in the same compartment, like TRPV1 and TRP
193 sis that some GAs, through direct actions at TRP channels, increase postsurgical pain and inflammatio
195 d to cilia and further investigated ENKUR, a TRP channel-interacting protein identified in the cilia
196 m of temperature-dependent gating of thermal TRP channels involving an intracellular region assembled
198 TRPV subset of transient receptor potential (TRP) channels is heat activated and proposed to be respo
199 id 4 (TRPV4), a Ca(2+)-permeable osmomechano-TRP channel, is highly expressed in articular chondrocyt
200 nction of NompC, a putative mechanosensitive TRP channel, is not only required for fly locomotion, bu
201 an homologue of the Drosophila photoreceptor TRP channel, is predominantly expressed within the outer
202 tage-dependent manner but, unlike many other TRP channels, is permeable to monovalent cations only.
203 ed that diverse types of channels, including TRP channels, K(2P) channels, MscS-like proteins, and DE
204 ions in TRPML1, a lysosomal Ca(2+)-permeable TRP channel, lead to mucolipidosis type IV, a neurodegen
205 the de-orphanization of natural products as TRP channel ligands may leverage their exploration as vi
206 or understanding the differential actions of TRP channel ligands, with important ramifications for TR
207 eveal a previously unrecognized function for TRP channels, link calcium signaling to longevity, and,
211 suggests that loss of Homer 1 scaffolding of TRP channels may contribute to the increased stretch-act
212 r findings indicate that temperature-sensing TRP channels may not contain a specialized heat-sensor d
213 Pharmacologic activation or blockade of TRP channels may offer new treatment options in surgical
215 that distinct transient receptor potential (TRP) channels mediate allodynia and hyperalgesia downstr
216 Our findings suggest that suppression of TRP channel-mediated neural excitation by the conserved
219 cs dictate that opening of these specialized TRP channels must involve an unusually large conformatio
220 ession or cellular localization of TRPA-1, a TRP channel needed in OLQ and IL1 neurons for touch beha
222 implicates the transient receptor potential (TRP) channels NOMPC, NANCHUNG, and INACTIVE, but not the
223 ontribution of transient receptor potential (TRP) channels, notably TRPV4, in volume regulation after
226 R(2) activates transient receptor potential (TRP) channels of nociceptive neurons to induce neurogeni
229 al roles in PVD function (e.g., DEG/ENaC and Trp channels) or development (e.g., UNC-5 and LIN-17/fri
230 trimeric G protein, phospholipase Cbeta, the TRP channel, or the Na(+)/Ca(2+) exchanger did not influ
235 ciliary ultrastructure, localization of the TRP channel PKD-2 and the kinesin-3 KLP-6, and velocity
237 by a subset of taste cells that express the TRP channel PKD2L1 and its partner PKD1L3, however the m
241 rward genetic screen of the TrpY1, the yeast TRP channel, recovered gain-of-function (GOF) mutations
243 lding protein Homer 1 has been implicated in TRP channel regulation, we hypothesized that Homer prote
244 trafficking of transient receptor potential (TRP) channels remain poorly understood, and identifying
248 the global genetic disruption of individual TRP channels result in phenotypes associated with impair
249 Yvc1p channel, a homologue of the mammalian TRP channels, revealed that the channel is activated by
251 cterization of a C. reinhardtii version of a TRP channel sharing key features present in mammalian TR
253 el ligands, with important ramifications for TRP channel structure-function analysis and pharmacology
254 ng that nyctalopin is acting as an accessory TRP channel subunit critical for proper channel localiza
255 recently that mutant mice lacking a specific TRP channel subunit, TRPC5, exhibited decreased innate f
256 ltiple genes encoding homologues of K(+) and Trp channel subunits, and genes encoding novel homologue
258 se the possibility that other members of the TRP channel superfamily are also regulated by caspase-me
259 sion of both TRPC6 and TRPC7, members of the TRP channel superfamily, also essentially eliminated the
260 ubfamily M member 3 (TRPM3), a member of the TRP channel superfamily, was recently identified as a no
261 ubgroup of the transient receptor potential (TRP) channel superfamily whose members have important ro
262 ur knowledge, this is the first example of a Trp channel that must undergo de novo expression for man
264 nilins and the transient receptor potential (TRP) channels that are distributed across ER/SR membrane
265 nilins and the transient receptor potential (TRP) channels that are distributed across ER/SR membrane
266 humans, which express many K(+), Ca(2+) and Trp channels, the genomes of pathogenic fungi encode onl
268 a Mini-Symposium entitled "Contributions to TRP Channels to Neurological Disease" included talks fro
269 rties by using transient receptor potential (TRP) channels to activate or ablate specific neuronal po
270 (+), Na(+), or transient receptor potential (TRP) channels to cross-react with intracellular Ca(2)(+)
271 use vanilloid transient receptor potential (TRP) channels to integrate light-evoked signals with amb
272 The ability of transient receptor potential (TRP) channels to sense and respond to environmental and
273 canonical (C) transient receptor potential (TRP) channel TRPC3 were present in both popliteal and fi
276 netically, the transient receptor potential (TRP) channels Trpm, NompC, and Polycystic kidney disease
277 An exception is the genetic ablation of the TRP channel TRPM7, which results in early embryonic leth
278 Recently, the transient receptor potential (TRP) channels TRPM8 and TRPA1 have been identified as mo
280 he regulation of gastric acid secretion by a TRP channel; TRPML1 is an important protein in parietal
282 nts expressing transient receptor potential (TRP) channels TRPV1 and TRPA1 are thought to be required
284 py to determine the structure of a mammalian TRP channel, TRPV1, at 3.4 A resolution, breaking the si
285 vanilloid (V) transient receptor potential (TRP) channel TRPV4 can be rapidly recorded and character
286 (2+)-selective transient receptor potential (TRP) channels TRPV5 and TRPV6 play vital roles in calciu
287 cently modeled transient receptor potential (TRP) channels using the Gestalt Domain Detection Algorit
288 or inputs from transient receptor potential (TRP) channel V1 (TRPV1)-positive dorsal root ganglion (D
290 -TyrR) and the transient receptor potential (TRP) channel Water witch (Wtrw), and astrocytes in turn
292 Effects of nitro-oleic acid (OA-NO2) on TRP channels were examined in guinea-pig dissociated dor
294 the archetypal Transient Receptor Potential (TRP) channel, which is essential for Drosophila phototra
295 TRPV4 ion channels represent osmo-mechano-TRP channels with pleiotropic function and wide-spread e
297 In contrast, replacement of portions of TRP channels with those of Kv2.1 consistently yielded no
298 be replaced by the analogous regions of both TRP channels without abolishing voltage-activation.
WebLSDに未収録の専門用語(用法)は "新規対訳" から投稿できます。