ライフサイエンスコーパス: nerve fiber

1 for having higher selectivity for the faster nerve fibers.

2 ion of the primary GC subtypes, even beneath nerve fibers.

3 le, and precise spike generation in auditory nerve fibers.

4 ompare this with functional studies of small nerve fibers.

5 action potentials in cold-sensitive afferent nerve fibers.

6 ormation of limbal blood vessels and corneal nerve fibers.

7 lar to that reported for individual auditory nerve fibers.

8 , trigeminal ganglia (TG) neurons, and their nerve fibers.

9 that relay quality information to gustatory nerve fibers.

10 loss of myelin, the fatty sheath that covers nerve fibers.

11 the neuronal cell bodies of corneal sensory nerve fibers.

12 ns at the nodes of Ranvier of teased sciatic nerve fibers.

13 he postnatal ingrowth of essential autonomic nerve fibers.

14 olecules, such as MAG, present in myelinated nerve fibers.

15 truct the responses of entire populations of nerve fibers.

16 y to reflect pathology in sciatic and tibial nerve fibers.

17 ompare this with functional studies of small nerve fibers.

18 the epineurium and extensive teasing of the nerve fibers; (2) an adaptable drop-plating method for s

19 and in the mean deviation using the GDx-VCC nerve fiber analyzer (Laser Diagnostic Technologies, San

20 tal (ie, thigh and leg) sites to study small nerve fiber and intraneural n-syn and p-syn.

21 Unmyelinated epidermal nerve fiber and myelinated dermal nerve fiber densities

22 fferent features from the firing of auditory nerve fibers and convey that information along separate

23 es can be linked to a particular subgroup of nerve fibers and how these changes are correlated with p

24 e central nervous system (CNS) along sensory nerve fibers and initially entered the simian CNS at lum

25 IVCCM can identify an abnormality in corneal nerve fibers and Langerhans cells in patients with and w

26 process characterized by the infiltration of nerve fibers and macrophages into lesions, plays a pivot

27 All of the drugs ablated intraepidermal nerve fibers and produced axonopathy, with a secondary d

28 recovered function of regenerated peripheral nerve fibers and reinnervated mechanoreceptors may diffe

29 ells detect coincident firing among auditory nerve fibers and transmit signals along monaural pathway

30 ation and transmit taste signals to afferent nerve fibers and ultimately to the brain.

31 , subepithelial basement membrane thickness, nerve fibers, and epithelial neuroendocrine cells.

32 coherence tomography (OCT) to assess retinal nerve fibers, and underwent muscle and brain magnetic re

33 The inner hair cell (IHC)/auditory nerve fiber (ANF) synapse is the first synapse of the au

34 Auditory nerve fibers (ANFs) exhibit a range of spontaneous firin

35 their placement along the axons of auditory nerve fibers (ANFs).

36 ntly improved measures of small unmyelinated nerve fiber architecture and function.

37 se the global effects of aging on myelinated nerve fibers are more complex and profound than those in

38 ed pancreatic islet and exocrine sympathetic nerve fiber area from autopsy samples of patients with t

39 iated with the presence of 5-HT3 -expressing nerve fibers as it is in the nTS.

40 een hair cells and the terminals of cochlear nerve fibers, as seen in confocal analysis of the organ

41 C is comprised of lamellae that surround the nerve fiber at its core.

42 er indentation to simulate stretch along the nerve fiber at the center of the PC.

43 plains, but with subclinical loss of retinal nerve fibers at OCT.

44 patients with SFN would lose intraepidermal nerve fibers at the distal leg more quickly than at more

45 manipulate an object, populations of tactile nerve fibers become activated and convey information abo

46 ound-shaped DCs were closely associated with nerve fiber branching points, penetrating the basement m

47 ses in a subset of sweet-sensitive gustatory nerve fibers but did not affect other types of fibers, a

48 rane of nociceptive, unmyelinated peripheral nerve fibers, but clarifying the role of sodium channel

49 reshold, small-diameter unmyelinated group C nerve fibers (C-fibers) has limited effects on mechanica

50 est that the pathology of the P2X3 epidermal nerve fibers can be selectively linked to neuropathy, hi

51 Cs trigger peptidergic nociceptive (or pain) nerve fibers, causing an alteration of the respiratory r

52 el of a single mammalian myelinated cochlear nerve fiber coupled to a stimulator-electrode-tissue int

53 e findings indicate that in type 1 diabetes, nerve fiber damage is evident in the subbasal nerve plex

54 The number of PGP9.5 (+) nerve fibers decreased from 0.32 +/- 0.12 (control group

55 (IENFD), sweat gland (SGNFD), and pilomotor nerve fiber densities (PMNFD) were measured.

56 Lower nerve fiber densities were associated with NIS-LL (p < 0

57 epidermal nerve fiber and myelinated dermal nerve fiber densities were quantified in skin biopsies f

58 I, 44% to 92%]; P < .001) and intraepidermal nerve fiber density (4 patients [27%; 95% CI, 8% to 55%]

59 larly be associated with a loss of epidermal nerve fiber density (ENFD).

60 nglion (DRG) inflammation and intraepidermal nerve fiber density (IENFD) loss.

61 Intraepidermal nerve fiber density (IENFD) was assessed in skin specime

62 al skin biopsies to determine intraepidermal nerve fiber density (IENFD).

63 Corneal nerve fiber density (mean [SE] difference, -6.78 [2.14]

64 ed to age- and sex-matched reference values; nerve fiber density and branching were significantly dec

65 er, our findings suggest that intraepidermal nerve fiber density and changes in NCV and amplitude mig

66 Secondary outcomes included intraepidermal nerve fiber density and nerve conduction study parameter

67 sis Severity Score (R = -0.354; P = .007 for nerve fiber density and R = -0.283; P = .03 for RNFL thi

68 lity Status Scale (rho = -0.295; P = .03 for nerve fiber density and rho = -0.374; P = .004 for RNFL

69 Nerve fiber density and RNFL thickness showed inverse as

70 Nerve fiber density and sprouting, as well as expression

71 At day 14, epidermal nerve fiber density and total epidermal nerve fiber leng

72 y nerve action potentials and intraepidermal nerve fiber density had a shorter CNFL (P = .04 and P =

73 ng noninvasive techniques to measure corneal nerve fiber density in HIV clinical settings.

74 d IL-31 induced an increase in the cutaneous nerve fiber density in lesional skin in vivo.

75 of regenerating axons and the intraepidermal nerve fiber density in the skin were reduced.

76 GAP-43 (+) nerve fiber density increased gradually from 5d (0.05 +/

77 hemical skin conductance) and intraepidermal nerve fiber density quantification.

78 Corneal nerve fiber density was reduced in patients with HIV com

79 ealed that cryolipolysis decreased epidermal nerve fiber density, as well as dermal myelinated nerve

80 Comparison of corneal nerve fiber density, corneal nerve branch density, corne

81 Corneal nerve fiber density, nerve branch density, nerve fiber l

82 Concomitant with decreased corneal nerve fiber density, rapid progressors had increased lev

83 Epidermal nerve fiber density, the primary outcome, is a measureme

84 acetylcholine transporter (VAchT), and their nerve fiber density, were unchanged after buserelin trea

85 fiber density, as well as dermal myelinated nerve fiber density, which persisted throughout the stud

86 accompanied by a reduction in intraepidermal nerve fiber density.

87 creases in norepinephrine level, sympathetic nerve fiber distribution and beta2-AR expression were ob

88 ic responses) from responses of the auditory nerve fibers (electroneural responses), with separate ex

89 Auditory nerve fibers encode sounds in the precise timing of acti

90 adult mice results in a similar decrease in nerve fiber endings and cell bodies.

91 a 30-degree sector, centered on the angle of nerve fiber entry into the optic nerve head.

92 oton microscopy, we observe that sympathetic nerve fibers establish neuro-adipose junctions, directly

93 They are approached by sensory nerve fibers expressing nicotinic acetylcholine receptor

94 phrine contents, distribution of sympathetic nerve fibers, expression of beta-adrenergic receptors (b

95 Indeed, IL-31 selectively promoted nerve fiber extension only in small-diameter neurons.

96 d-rich membrane that ensheaths and insulates nerve fibers, facilitates the rapid conduction of electr

97 Although ATP is necessary for activation of nerve fibers for all taste stimuli, the role of 5-HT is

98 depolarization of acid-sensitive trigeminal nerve fibers, for example, polymodal nociceptors, rather

99 significant reduced thickness in the retinal nerve fiber, ganglion cell, inner plexiform, and outer p

100 s were observed in the inner retinal layers (nerve fiber, ganglion cells, inner plexiform, and inner

101 kin cooling to specifically target cutaneous nerve fibers has the potential to be useful for prolonge

102 e recovery of sensory responses to surviving nerve fibers, homeostatic adjustments in PV-mediated inh

103 ons between cochlear hair cells and auditory nerve fibers; however, there is no clinical test of this

104 showed substantial innervation by trigeminal nerve fibers immunoreactive for calcitonin gene-related

105 of peptidergic and non-peptidergic epidermal nerve fibers in a rat model of nerve injury-induced pain

106 lium innervation by accompanying the sensory nerve fibers in crossing the basement membrane and branc

107 taining the functional integrity of auditory nerve fibers in early life rather than at old age.

108 ageal achalasia, and the enteric neurons and nerve fibers in gastrointestinal tract were markedly abn

109 n IL-17c-specific receptor, was expressed on nerve fibers in human skin and sensory neurons in dorsal

110 We studied the distribution of mucosal nerve fibers in patients with NERD, ERD, and BE, and com

111 ere DRG pathology and loss of intraepidermal nerve fibers in SIV-infected macaques.

112 bset of cells in the geniculate ganglion and nerve fibers in taste buds are GFP-positive.

113 proportions of VIP, CGRP, and SP containing nerve fibers in the distal epithelium.

114 Histology confirmed the presence of nerve fibers in the infarct border zone.

115 m, while it occasionally reaches the sensory nerve fibers in the mouse footpad.

116 eration is closely linked to the presence of nerve fibers in the pulp and to the healing mechanism by

117 s of disorders marked by degeneration of the nerve fibers in the sensory periphery neurons.

118 ide Abs-induced neuropathy (injury to intact nerve fibers) in GBS.

119 stics (GDx), Carl Zeiss Meditec, Dublin, CA) nerve fiber indicator (NFI), and Spectralis optical cohe

120 OSA patients showed increased nerve fiber indicator (NFI; 20.9 +/- 7.9 versus 16.42 +/

121 iking response that would be produced in the nerve fiber innervating that receptor.

122 microscopy revealed that peripheral afferent nerve fibers innervating taste buds contain calcitonin g

123 racteristic frequency (CF) of their auditory nerve fiber inputs.

124 e density of peri-arterial renal sympathetic nerve fibers is lower in distal segments and dorsal loca

125 eption of the primary olfactory and terminal nerve fibers, labeled only for NADPH-d, yielded identica

126 , inner retinal layer (IRL), macular retinal nerve fiber layer (mRNFL), macular ganglion cell layer (

127 On SD OCT, the tumor epicenter was in the nerve fiber layer (n = 47; 100%), with all other retinal

128 ere was significant, progressive loss of the nerve fiber layer (NFL) (0.25 mum/y) and the ganglion ce

129 p the thickness of the peripapillary retinal nerve fiber layer (NFL) and ganglion cell complex (GCC).

130 determine correlations between RPC density, nerve fiber layer (NFL) thickness, and visual field indi

131 over the discs were used to measure retinal nerve fiber layer (NFL) thickness.

132 to measure optic disc, peripapillary retinal nerve fiber layer (NFL), and macular ganglion cell compl

133 The optic disc, peripapillary retinal nerve fiber layer (NFL), and macular ganglion cell compl

134 nner inner plexiform layer (IPL) (P = 0.02), nerve fiber layer (P = 0.05), and RPE (P = 0.0001), and

135 ssess the thickness of peripapillary retinal nerve fiber layer (pRNFL) and segmented macular layers,

136 posterior pole and the peripapillary retinal nerve fiber layer (pRNFL) protocols of the Spectralis OC

137 h no significant difference in peripapillary nerve fiber layer (pRNFL) thickness and optic nerve head

138 e with INL cysts had thinner average retinal nerve fiber layer (RNFL) (78.2 +/- 1.8 mum vs 52.0 +/- 4

139 mm Hg (P < .00001) and mean average retinal nerve fiber layer (RNFL) 71.0 +/- 30 mum vs 62.8 +/- 24

140 The retinal nerve fiber layer (RNFL) and ganglion cell-inner plexifo

141 compare the rates of circumpapillary retinal nerve fiber layer (RNFL) and macular retinal ganglion ce

142 Retinal nerve fiber layer (RNFL) and macular thickness scans wer

143 icrocirculation of the peripapillary retinal nerve fiber layer (RNFL) between the hemispheres in eyes

144 To quantify retinal nerve fiber layer (RNFL) changes in patients with multip

145 graphy (OCT; Heidelberg Engineering) retinal nerve fiber layer (RNFL) classification.

146 etinal ganglion cells (RGC) loss and retinal nerve fiber layer (RNFL) injury: this results in functio

147 e been proposed as an alternative to retinal nerve fiber layer (RNFL) parameters to diagnose glaucoma

148 ripapillary choroidal thickness, and retinal nerve fiber layer (RNFL) thicknes.

149 concentration and the peripapillary retinal nerve fiber layer (RNFL) thickness at presentation (r =

150 We assessed retinal nerve fiber layer (RNFL) thickness by optical coherence

151 herence tomography (OCT) measures of retinal nerve fiber layer (RNFL) thickness have been proposed as

152 cell (DC) density, and peripapillary retinal nerve fiber layer (RNFL) thickness in patients with MS.

153 pregnancy and low birth weight with retinal nerve fiber layer (RNFL) thickness in preadolescent chil

154 h previous treated ROP had decreased retinal nerve fiber layer (RNFL) thickness in the superior and n

155 change of the average peripapillary retinal nerve fiber layer (RNFL) thickness measurements obtained

156 annulus 100 microm in width, and the retinal nerve fiber layer (RNFL) thickness profiles were plotted

157 Measurement of retinal nerve fiber layer (RNFL) thickness using optical coheren

158 evaluated on visual acuity (VA) and retinal nerve fiber layer (RNFL) thickness using time-domain (TD

159 Peripapillary retinal nerve fiber layer (RNFL) thickness values were also dete

160 MDB and retinal nerve fiber layer (RNFL) thickness values were determine

161 In HCs, baseline peripapillary retinal nerve fiber layer (RNFL) thickness was 6.1microm greater

162 Average retinal nerve fiber layer (RNFL) thickness was measured using a

163 Retinal nerve fiber layer (RNFL) thickness was measured using sp

164 the optic nerve and analysis of the retinal nerve fiber layer (RNFL) thickness was performed on each

165 nce tomography (OCT) measurements of retinal nerve fiber layer (RNFL) thickness when using automated

166 T parameters, SD-OCT circumpapillary retinal nerve fiber layer (RNFL) thickness, and optic nerve head

167 with the ONH rim area, peripapillary retinal nerve fiber layer (RNFL) thickness, and the macular gang

168 Field (HVF) mean deviation (MD), and retinal nerve fiber layer (RNFL) thickness, as measured by Cirru

169 defects were compared with regard to retinal nerve fiber layer (RNFL) thickness, drusen morphology, s

170 es, including inferior peripapillary retinal nerve fiber layer (RNFL) thickness, inferior ganglion ce

171 The optic nerve head (ONH) shape, retinal nerve fiber layer (RNFL) thickness, ONH volume, and papi

172 y analysis (PPAA), the peripapillary retinal nerve fiber layer (RNFL) thickness, the ganglion cell la

173 disc margin (DM)-based assessment or retinal nerve fiber layer (RNFL) thickness, yielded higher diagn

174 T measured ganglion cell complex and retinal nerve fiber layer (RNFL) thickness.

175 (OSA) syndrome in the peripapillary retinal nerve fiber layer (RNFL) thicknesses remains unclear.

176 ell (RGC) loss and only females have retinal nerve fiber layer (RNFL) thinning, despite mice of both

177 of peripapillary 3-dimensional (3D) retinal nerve fiber layer (RNFL) volume measurements from spectr

178 Total and hemispheric RBF, retinal nerve fiber layer (RNFL), and ganglion cell complex (GCC

179 al coherence tomography (OCT) of the retinal nerve fiber layer (RNFL), and monocular pattern reversal

180 al coherence tomography (OCT) of the retinal nerve fiber layer (RNFL), and volumetric OCT scans throu

181 obtain objective measurements of the retinal nerve fiber layer (RNFL), optic nerve head, and macula f

182 to investigate the thickness of the retinal nerve fiber layer (RNFL), the ganglion cell layer (GCL),

183 s in ganglion cell complex (GCC) and retinal nerve fiber layer (RNFL).

184 visual pathway damage (peripapillary retinal nerve fiber layer [RNFL] thickness and macular volume) a

185 l bodies and axons, the unmyelinated retinal nerve fiber layer and the myelinated post-laminar axons,

186 between eyes, presence of localized retinal nerve fiber layer and/or neuroretinal rim defects, and d

187 e structural thinning in the macular retinal nerve fiber layer correlates with pulmonary function tes

188 disc ratio and cup shape and missing retinal nerve fiber layer defects and disc hemorrhage were the k

189 s useful to differentiate this artifact from nerve fiber layer hemorrhage.

190 ler cell foot process swelling that mimics a nerve fiber layer hemorrhage.

191 ilic cytoplasm that mimicked erythrocytes of nerve fiber layer hemorrhages.

192 Retinal astrocytic hamartomas arose in the nerve fiber layer in every case and demonstrated moth-ea

193 , choroidal neovascular membrane (n = 1), or nerve fiber layer infarction (n = 1) for a mean interval

194 olds, hyperopic refractive error shifts, and nerve fiber layer infarcts.

195 have shown that the circumpapillary retinal nerve fiber layer is an important parameter for glaucoma

196 = 0.65), cup shape (kappaw = 0.65), retinal nerve fiber layer loss (kappaw = 0.69), vertical cup-to-

197 p-disc ratio and failure to identify retinal nerve fiber layer loss, disc hemorrhage, or rim loss wer

198 as associated with overestimation of retinal nerve fiber layer loss, rim loss, vertical cup-disc rati

199 xhibited selective reductions of the retinal nerve fiber layer that correlate with electrophysiologic

200 kness (GC-IPLT), and circumpapillary retinal nerve fiber layer thickness (cpRNFLT) were determined.

201 ), and reduced superior and inferior retinal nerve fiber layer thickness (P = 0.01, respectively) wer

202 are needed to compare peripapillary retinal nerve fiber layer thickness (pRNFLT) measurements taken

203 ial pressure correlated with maximal retinal nerve fiber layer thickness (r = 0.60, P </= .001), maxi

204 Retinal nerve fiber layer thickness (RNFL), ganglion cell comple

205 Retinal nerve fiber layer thickness (RNFLT) and central macular

206 racterized BMO-MRW and peripapillary retinal nerve fiber layer thickness (RNFLT) in a normal populati

207 , BMO area (BMOA), and peripapillary retinal nerve fiber layer thickness (RNFLT) were measured with o

208 kness, macular volume, peripapillary retinal nerve fiber layer thickness and choroidal thickness usin

209 ated eyes showed an average temporal retinal nerve fiber layer thickness of 54 mum before injection a

210 Macular retinal nerve fiber layer thickness positively correlated with f

211 Repeatability of nerve fiber layer thickness was best for Fourier-domain

212 g, Disc Damage Likelihood Scale, and retinal nerve fiber layer thickness) were generally not informat

213 sc Damage Likelihood Scale, and mean retinal nerve fiber layer thickness).

214 al parameters, minimum rim width and retinal nerve fiber layer thickness, in addition to peripapillar

215 Retinal nerve fiber layer thinning based on OCT results is a use

216 me patients despite continued marked retinal nerve fiber layer thinning indistinguishable from that i

217 including severity of IOP elevation, retinal nerve fiber layer thinning, or electrodiagnostic finding

218 Macular retinal nerve fiber layer was significantly thinner in ALS patie

219 and vertical cup-disc ratio, average retinal nerve fiber layer) were measured by SD-OCT.

220 ickness and the optic nerve head and retinal nerve fiber layer, and visual field in a dark room with

221 cant thinning of the ganglion cell layer and nerve fiber layer, as well as a thickening of the INL an

222 on automated perimetry, and loss of retinal nerve fiber layer, even among those with good visual acu

223 Positive staining was present within the nerve fiber layer, inner plexiform layer, and inner and

224 afe and does not damage the temporal retinal nerve fiber layer, opening the door next for testing of

225 fractal dimension parameters of the retinal nerve fiber layer, photoreceptor outer segments and reti

226 aining was only observed at the level of the nerve fiber layer.

227 hibit a progressive axonal loss in the optic nerve fiber layer.

228 ts who underwent PRP had diffusely thickened nerve fiber layers (P = 0.024) and diffusely thinned ret

229 Correlation of corneal nerve fiber length (CNFL) with the severity of SFN.

230 ents exhibited significantly reduced corneal nerve fiber length (CNFL-MNF), fiber density (CNFD-MNF),

231 hes/mm2; 95% CI, -28.77 to -7.10; P = .001), nerve fiber length (mean [SE] difference, -3.03 [0.89] m

232 s detected in the cornea of 51% of patients: nerve fiber length was significantly decreased in 44% of

233 Corneal nerve branch density and corneal nerve fiber length were reduced in patients with HIV, bu

234 nsity, corneal nerve branch density, corneal nerve fiber length, corneal nerve fiber tortuosity, and

235 l nerve fiber density, nerve branch density, nerve fiber length, DC density, peripapillary RNFL thick

236 rmal nerve fiber density and total epidermal nerve fiber length/mm(2) were significantly and consiste

237 2% CI, -50.62 to -3.13; P = .01; and corneal nerve fiber length: 28.4 mm/mm2 for the controls vs 21.9

238 Intraepidermal nerve fiber loss, axonal degeneration, immune cell infil

239 rmine whether SIV infection leads to corneal nerve fiber loss, we immunostained corneas for the nerve

240 fiber loss, we immunostained corneas for the nerve fiber marker betaIII tubulin.

241 Recent work suggests that newly formed nerve fibers may regulate the tumor microenvironment, bu

242 n of activation in one population of tactile nerve fibers, namely slowly adapting type 1 (SA1) affere

243 associated with neural structures, including nerve fibers, nerve bundles, and muscle spindles, which

244 tors affect the phenotypes of colonic mucosa nerve fibers, neuron differentiation, and fiber outgrowt

245 tudy was to quantify the morphology of small nerve fibers of the cornea of patients with fibromyalgia

246 yme neuronal nitric oxide synthase (nNOS) in nerve fibers of the murine vaginal wall.

247 the prion protein, PrP(Sc), was observed in nerve fibers of the tongue approximately 2 weeks prior t

248 o investigate whether IL-31 promotes sensory nerve fiber outgrowth.

249 function of Merkel cells and their afferent nerve fiber partners.

250 Recent studies showed marked small nerve fiber pathology in critically ill patients, which

251 a novel non-invasive method to detect small nerve fiber pathology.

252 ow that intact motor, sensory, and autonomic nerve fibers/paths are distinctly labeled following a si

253 sing 5-HT3A GFP mice, that 5-HT3 -expressing nerve fibers preferentially contact and receive synaptic

254 Within nerve fibers prions were associated with the endosomal-l

255 nstrates anterograde spread of prions within nerve fibers prior to infection of peripheral synapses (

256 eir axonal fibers, including the nociceptive nerve fibers projecting into the brainstem.

257 cal responses is driven by one population of nerve fibers (rapidly adapting) whereas the timing of co

258 nodal and axonal injury of intact myelinated nerve fibers, recapitulating pathologic features of huma

259 Auditory nerve fibers reflect this tonotopy and encode temporal p

260 Activity of auditory nerve fibers reflects this frequency-specific topographi

261 lothionein II was shown to enhance epidermal nerve fiber regeneration so that it was complete within

262 V-2 reactivation exhibit a higher density of nerve fibers relative to biopsies during virological and

263 chronic variable stress in mice, sympathetic nerve fibers released surplus noradrenaline, which signa

264 comparison between SFOAE delays and auditory nerve fiber responses for the barn owl strengthens the n

265 ener kernel) analyses of chinchilla auditory nerve fiber responses to Gaussian noise to reveal pronou

266 e system-identification analyses of auditory nerve fiber responses to Gaussian noise to uncover prono

267 The retinal nerve fiber (RNFL) and retinal ganglion cell layer (RGCL

268 to the healing mechanism by sprouting of the nerve fiber's terminal branches beneath the carious inju

269 ad no effect on measures of large myelinated nerve fibers, specifically sural or sciatic nerve conduc

270 Further, these 5-HT3 -expressing nerve fibers terminate in a restricted central-lateral p

271 ith more than twice the number of trigeminal nerve fibers than any other species.

272 elevance: Unlike other diseases of the small nerve fibers that cause acral pain syndromes, erythromel

273 Unlike other diseases of the small nerve fibers that cause acral pain syndromes, erythromel

274 of sensory, sympathetic, and parasympathetic nerve fibers that contain classical transmitters plus an

275 he hormone leptin is mediated by sympathetic nerve fibers that directly "envelope" white adipocytes.

276 s mediated through the action of sympathetic nerve fibers that innervate the adipose tissue.

277 hologically decreased densities of the small nerve fibers that innervate the epidermis, one hypothesi

278 I taste cells and 5-HT3 -expressing afferent nerve fibers that project to a restricted portion of the

279 re examined for the presence and location of nerve fibers that reacted with a labeled antibody agains

280 release glutamate onto the afferent auditory nerve fibers to encode sound stimulation.

281 fferential susceptibility of small and large nerve fibers to specific metabolic impairments associate

282 for the rectum, nearly half of all extrinsic nerve fibers to the distal colon lack the key immunohist

283 s the second delivers virus particles within nerve fibers to the neural ganglia.

284 density, corneal nerve fiber length, corneal nerve fiber tortuosity, and corneal Langerhans cell dens

285 suggesting that release of substance P from nerve fibers triggers the inflammatory events.

286 ased from type III cells activates gustatory nerve fibers via 5-HT3 receptors, accounting for a signi

287 ir primary excitatory input through auditory nerve fibers via large, axosomatic synaptic terminals ca

288 odulate serotonin-sensitive primary afferent nerve fibers via synaptic connections, enabling them to

289 Although the development of myelinated nerve fibers was not impaired, Miz1DeltaPOZ mice acquire

290 P2X3 receptor, a marker for non-peptidergic nerve fibers, was not only significantly reduced but cou

291 ne-related peptide, a marker for peptidergic nerve fibers, was not significantly changed on the ipsil

292 not synaptically connected with the afferent nerve fibers, we first analyzed tracer production and tr

293 e mainly present in vulvar segments and most nerve fibers were found in the lamina propria of the cer

294 Epidermal nerve fibers were lost at similar rates in proximal and

295 lamine biosynthetic enzymes, and sympathetic nerve fibers were measured in EAT and subcutaneous adipo

296 Efferent nerve fibers were predominant (tyrosine hydroxylase/calc

297 Dispersed maturation of sensory nerve fibers with desynchronized inputs to the CNS also

298 abeling both peptidergic and non-peptidergic nerve fibers with the pan-neuronal marker PGP9.5, the ex

299 me, is a measurement of the density of small nerve fibers within the epidermis.

300 a selective loss of high-threshold auditory nerve fibers without affecting absolute sensitivity perm