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1 sentative of the TRP family, TRPM3 is highly polymodal.
2 erstand the structural basis underlying this polymodal activation and the regulation by intracellular
5 ngeal afferent neurones regulating cough are polymodal Adelta-fibres that arise from the nodose gangl
6 Fasting, to unload mechanically sensitive polymodal afferents in the proximal gastrointestinal tra
8 shing for the first time in humans that this polymodal area is modified after early sensory deprivati
17 cortical, paralimbic, and limbic structures, polymodal association, and ventromedial prefrontal corte
18 izing principles: the first being a rotating polymodal-association pinwheel structure around which ac
20 d not affect the axotomy-induced decrease in polymodal C-fiber (CPM) heat threshold, but transiently
21 (TRPV1) cation channel is characteristic of polymodal C-fiber nociceptors and is sensitive to noxiou
23 Receptor Potential Vanilloid 1 (TRPV1) is a polymodal, Ca(2+)-permeable cation channel crucial to re
26 nsient receptor potential (TRP) channels are polymodal cell sensors responding to diverse stimuli and
27 ensory neurons where it acts as an important polymodal cellular sensor for heat, acidic pH, capsaicin
28 or potential (TRP) ion channel family act as polymodal cellular sensors, which aid in regulating Ca(2
32 ce of a previously unidentified cholinergic, polymodal chemosensory cell in the mammalian urethra, th
33 RP activity localized to auditory cortex and polymodal cortex of the temporal lobe, concurrent with g
34 ently cloned and confirmed functionally as a polymodal detector of multiple pain stimuli: heat, acid,
35 neuron-specific ion channel that serves as a polymodal detector of pain-producing chemical and physic
36 loid 1) is a cation channel that serves as a polymodal detector of pain-producing stimuli such as cap
37 ptor potential ion channels (thermoTRPs) are polymodal detectors of various stimuli including tempera
38 the noise-dependent stabilization exhibits a polymodal distribution with multiple, well defined, and
40 ncapable of explaining the three-dimensional polymodal fault patterns that are widely observed in roc
42 ere, we identify the molecular basis for the polymodal function of OCR-2 in its native cellular envir
45 udies show that most C-fiber nociceptors are polymodal (i.e., respond to multiple noxious stimulus mo
48 hin insular cortex provide the basis for its polymodal integration of all salient activity relevant t
49 receptor potential vanilloid 1 (TRPV1) is a polymodal ion channel involved in the detection of noxio
51 ressure affect activity of the prototypical, polymodal K(2P), K(2P)2.1 (KCNK2/TREK-1), at a common mo
54 ntial vanilloid type 1 (TRPV1) receptor is a polymodal molecular integrator in the pain pathway expre
55 panding PRh involvement, consistent with the polymodal nature of PRh connections and results from pri
56 ivotal role in the generation of a systemic, polymodal neurohumoral response to a hyperosmotic challe
57 nels carry mechanotransduction currents in a polymodal neuron, where they act upstream of transient r
60 ther nociceptive specific (NS, n = 20) or as polymodal nociceptive (HPC, responsive to heat, pinch an
61 pherally encoded in C-MIAs, and that primate polymodal nociceptive afferents form three functionally
62 inct subset of sensory neurons that transmit polymodal nociceptive information from the skin epidermi
66 ound to have vasodilator actions were of the polymodal nociceptor afferent class, and fourteen (50%)
67 n both the rabbit and the rat, a subclass of polymodal nociceptor afferents form the majority of the
69 to analyse functional connectivity between a polymodal nociceptor and a command neuron that initiates
73 he capsaicin receptor TRPV1 ion channel is a polymodal nociceptor that responds to heat with exquisit
79 fibres were nociceptive and comprised seven polymodal nociceptor units, two heat nociceptor units an
82 mal thresholds after regeneration, whereas C-polymodal nociceptors (CPMs) had lower heat thresholds.
83 ction and successful regeneration, cutaneous polymodal nociceptors (CPMs) lacking transient receptor
84 d on the responsiveness of cutaneous C-fiber polymodal nociceptors (CPMs) to sympathetic stimulation
86 t both in high threshold mechanoreceptor and polymodal nociceptors and also in units with either cuta
91 igh-threshold CSNs and in a subpopulation of polymodal nociceptors expressing TRPM8, providing a gene
95 It is concluded that a subpopulation of C-polymodal nociceptors is sensitive to noxious low temper
96 ion of corneal afferent neurons that are not polymodal nociceptors or cold-sensing neurons, and is li
98 receptors responding to mechanical stimuli; polymodal nociceptors responding to mechanical, noxious
99 t, but it also transforms a subpopulation of polymodal nociceptors signaling pain into neurons activa
101 neurons of the Drosophila larva function as polymodal nociceptors that are necessary for behavioral
102 e we demonstrate that mechanically sensitive polymodal nociceptors that respond either quickly (QC) o
103 or population, C-mechanoheat fibres (C-MH or polymodal nociceptors) were markedly more responsive to
104 121 receptors recorded from 39 fish, 17 were polymodal nociceptors, 22 were mechanothermal nociceptor
105 sitive trigeminal nerve fibers, for example, polymodal nociceptors, rather than through taste buds.
106 in gene-related peptide (CGRP), a marker for polymodal nociceptors, suggesting that trigeminal genera
107 onin gene-related peptide [CGRP]) trigeminal polymodal nociceptors, which respond to numerous odorant
121 that ammonia activates TRPV1, TRPA1 (another polymodal nocisensor), and other unknown receptor(s) exp
123 e that Mrgprd influences the excitability of polymodal nonpeptidergic nociceptors to mechanical and t
124 r parietal cortex, higher-order auditory and polymodal processing regions in the superior temporal co
125 dorsal horn neurons and that, despite their polymodal properties, TRPV1+ and MrgprD+ nociceptors pro
126 tential vanilloid 1 (TRPV1) ion channel is a polymodal protein that responds to various stimuli, incl
127 TRPV1 channels and the relevance of accurate polymodal receptor biophysical characterization for drug
128 tential vanilloid 1 (TRPV1) ion channel is a polymodal receptor that mediates the flux of cations acr
135 ential melastatin (TRPM) cation channels are polymodal sensors that are involved in a variety of phys
136 atures and defective trafficking of OSM-9, a polymodal sensory channel protein and a functional homol
137 ptive-specific inputs (PB-->CeA synapse) and polymodal sensory inputs (BLA-->CeA synapse) in the arth
141 enorhabditis elegans nervous system: the ASH polymodal sensory neurons, the AVA, AVD and AVE interneu
144 nsient receptor potential (TRP) channels are polymodal signal detectors that respond to a wide array
145 nsient receptor potential (TRP) channels are polymodal signal detectors that respond to a wide range
146 convertase provides additional evidence that polymodal signaling in C. elegans occurs via the differe
152 se retina expresses mRNA and protein for the polymodal transient receptor potential vanilloid 4 (TRPV
153 experiments, we found that HA also modulates polymodal transient receptor potential vanilloid subtype
154 target side effect in clinical studies using polymodal TRPV1 antagonists has prompted companies to se
156 e dominant hemisphere were more likely to be polymodal, whereas those in nondominant hemisphere were
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