ライフサイエンスコーパス: enteric nervous system

1 al deficits and physiological changes to the enteric nervous system.

2 nd adaptive immunity, and dysfunction of the enteric nervous system.

3 HGF and MET are expressed in fetal and adult enteric nervous system.

4 n between the enteroendocrine system and the enteric nervous system.

5 e along with the drivers of their input, the enteric nervous system.

6 Little is known of how Tat affects the enteric nervous system.

7 ed during HIV infection are regulated by the enteric nervous system.

8 neuronal as well as glial progenitors in the enteric nervous system.

9 role of miRNAs in HFD-induced damage to the enteric nervous system.

10 motility disorders caused by diseases of the enteric nervous system.

11 eristalsis is significantly dependent on the enteric nervous system.

12 s show a significant increase in glia in the enteric nervous system.

13 (Hand2(+/-) mice) numbers of neurons in the enteric nervous system.

14 in contrast to the neurodegeneration in the enteric nervous system.

15 ural crest that colonize the gut to form the enteric nervous system.

16 role in the development and survival of the enteric nervous system.

17 eric neurons but also is latent in the human enteric nervous system.

18 es produced by enteroendocrine cells and the enteric nervous system.

19 neurite fasciculation necessary to form the enteric nervous system.

20 e most common congenital malformation of the enteric nervous system.

21 pin-releasing factor (CRF) in the guinea pig enteric nervous system.

22 nal development with a partial rescue of the enteric nervous system.

23 ory neurons (EP cells) within the developing enteric nervous system.

24 s of cells to the terminal bowel to form the enteric nervous system.

25 s a major inhibitory neurotransmitter in the enteric nervous system.

26 excitatory actions of CRF on neurons in the enteric nervous system.

27 n many inhibitory neurones of the vertebrate enteric nervous system.

28 ing factor (CRF) receptors in the guinea pig enteric nervous system.

29 noamine release in central neurons or in the enteric nervous system.

30 pes and glial cells present in the mammalian enteric nervous system.

31 ole of erbB2 in postnatal development of the enteric nervous system.

32 n myenteric and submucosal components of the enteric nervous system.

33 ing fast and slow synaptic excitation in the enteric nervous system.

34 ic and submucosal plexuses of the guinea pig enteric nervous system.

35 gically identified neurons in the guinea pig enteric nervous system.

36 ney organogenesis and the development of the enteric nervous system.

37 ng renal development and histogenesis of the enteric nervous system.

38 for neuronal replacement in disorders of the enteric nervous system.

39 iate into the neurons and glial cells of the enteric nervous system.

40 ty, suggesting that they may also affect the enteric nervous system.

41 neurotransmitter roles for NO and CO in the enteric nervous system.

42 l role in the development of the kidneys and enteric nervous system.

43 ecting the gut epithelium, immune system and enteric nervous system.

44 gulating the development and function of the enteric nervous system.

45 ng neurogenesis in the fully developed adult enteric nervous system.

46 odulating cholinergic neural reflexes in the enteric nervous system.

47 ant inhibitory motor neurotransmitter in the enteric nervous system.

48 inhibits cholinergic neural reflexes in the enteric nervous system.

49 nesyl-prelamin A are toxic to neurons of the enteric nervous system.

50 rs are localized to central, peripheral, and enteric nervous systems.

51 axonal number in the peripheral, central and enteric nervous systems.

52 hat which transports 5-HT in the central and enteric nervous systems.

53 eripheral, sympathetic, parasympathetic, and enteric nervous systems.

54 nce of cellular pathology in the central and enteric nervous systems.

55 differentiated neurons of the peripheral and enteric nervous systems.

56 In the enteric nervous system, 5-HITCA is detected without the

57 ow chest, and shortening of long bones), and enteric nervous system (aganglionosis).

58 t accumulation of 5-HITCA in the central and enteric nervous systems, along with data showing the deg

59 appear to be an intrinsic capability of the enteric nervous system and are not related to slow waves

60 inergic receptor subtype is expressed in the enteric nervous system and at intestinal neuromuscular j

61 the autonomic nervous systems, including the enteric nervous system and central autonomic network.

62 ion between these genes is restricted to the enteric nervous system and does not affect renal, coat c

63 pathway of adrenergic differentiation in the enteric nervous system and have defined a transient requ

64 ides a selective mechanism through which the enteric nervous system and innate immune system integrat

65 lionosis, is a developmental disorder of the enteric nervous system and is the most common cause of i

66 e involves an enterotoxin, activation of the enteric nervous system and malabsorption, suggesting tha

67 d carbon monoxide - that are produced by the enteric nervous system and share common molecular target

68 s displayed pathological changes in both the enteric nervous system and smooth muscle.

69 Both the enteric nervous system and the central nervous system ca

70 singly evident that interactions between the enteric nervous system and the immune system play an imp

71 des convey nutrient-regulated signals to the enteric nervous system and to distal organs, acting as c

72 he possible common origin of sympathetic and enteric nervous systems and provides new hope that we ma

73 e sensory, sympathetic, parasympathetic, and enteric nervous systems and the kidneys, as well as for

74 inhibitory nitrergic neural inputs from the enteric nervous system, and (iv) stretch receptors that

75 the immaturity of their intestinal barrier, enteric nervous system, and immune response to pathogens

76 unctions, the functional architecture of the enteric nervous system, and immune responses in the gut

77 ions between the central nervous system, the enteric nervous system, and the gastrointestinal tract.

78 the interactions among the vagus nerve, the enteric nervous system, and the intestinal epithelium ma

79 he genetic control of the development of the enteric nervous system, and the potential role of the in

80 st-derived components of the sympathetic and enteric nervous systems, and cardiac fibroblasts.

81 iation of progenitor cells in the developing enteric nervous system are controlled by molecules such

82 tent of the sacral crest contribution to the enteric nervous system are not well established in roden

83 neuronal subtypes during development of the enteric nervous system are poorly understood despite its

84 es a viral enterotoxin and activation of the enteric nervous system, as well as malabsorption, sugges

85 on sequence variants in genes related to the enteric nervous system, as well as with monogenic and ch

86 nding and isolating early progenitors of the enteric nervous system based on their ability to form di

87 ardenburg-Shah syndrome combines the reduced enteric nervous system characteristic of Hirschsprung's

88 Vagal neural crest-derived precursors of the enteric nervous system colonize the bowel by descending

89 is sequence also modulates expression in the enteric nervous system consistent with its proposed role

90 The enteric nervous system consists of two ganglionated neur

91 ition to ionotropic glutamate receptors, the enteric nervous system contains functional group I metab

92 We conclude that the enteric nervous system contains intrinsic dopaminergic n

93 The enteric nervous system contains intrinsic primary affere

94 The enteric nervous system controls a variety of gastrointes

95 The myenteric plexus of the enteric nervous system controls the movement of smooth m

96 The combination of pigmentation and enteric nervous system defects makes colourless mutation

97 ibution of strain background to variation in enteric nervous system deficits.

98 y recently to discuss the latest research on enteric nervous system development at a meeting organise

99 ver been implicated in stem cell function or enteric nervous system development.

100 developing neurons before the completion of enteric nervous system development.

101 uch that its loss leads to severe defects in enteric nervous system development.

102 Later, during enteric nervous system differentiation, Meis3-depleted e

103 Most neurons in the enteric nervous system discharge in response to distorti

104 In contrast, the enteric nervous system displays little or no loss of cho

105 losion of interest in the development of the enteric nervous system driven by the need to understand

106 ation of immunity, changes that occur in the enteric nervous system during inflammation, the fundamen

107 nism by measuring colonization in hosts with enteric nervous system dysfunction due to a mutation in

108 cells (NCC) that ultimately give rise to the enteric nervous system (ENS) along the entire length of

109 Enteric glia are important components of the enteric nervous system (ENS) and also form an extensive

110 These ganglia comprise the enteric nervous system (ENS) and are derived from migrat

111 uding the gastrointestinal tract to form the enteric nervous system (ENS) and hematopoietic organs (b

112 We developed a technique to image human enteric nervous system (ENS) and other intramural cells

113 the hypotheses that OT is endogenous to the enteric nervous system (ENS) and that OTR signaling may

114 ous system (CNS), there is evidence that the enteric nervous system (ENS) and the peripheral nervous

115 The majority of neurones and glia of the enteric nervous system (ENS) are derived from the vagal

116 The enteric nervous system (ENS) arises from the coordinated

117 t signaling is critical for formation of the enteric nervous system (ENS) because Ret activation prom

118 derived progenitors (ENPs) that generate the enteric nervous system (ENS) can lead to aganglionosis i

119 (HSCR) is a severe congenital anomaly of the enteric nervous system (ENS) characterized by functional

120 The enteric nervous system (ENS) comprises a complex neurona

121 The enteric nervous system (ENS) consists of neurons and gli

122 The enteric nervous system (ENS) controls the gastrointestin

123 The enteric nervous system (ENS) coordinates diverse functio

124 The enteric nervous system (ENS) coordinates essential intes

125 (5-HT) regulates central nervous system and enteric nervous system (ENS) development and long-term f

126 irschsprung disease is a serious disorder of enteric nervous system (ENS) development caused by the f

127 Enteric nervous system (ENS) development is governed by

128 Enteric nervous system (ENS) development is relevant to

129 Normal enteric nervous system (ENS) development relies on numer

130 Enteric nervous system (ENS) development requires comple

131 disease (HSCR), a multifactorial disorder of enteric nervous system (ENS) development, is associated

132 rify the role of Ret signaling components in enteric nervous system (ENS) development, we evaluated E

133 ital disorder, arising from abnormalities in enteric nervous system (ENS) development.

134 The enteric nervous system (ENS) develops from neural crest

135 The enteric nervous system (ENS) develops from neural crest

136 The enteric nervous system (ENS) exists in close proximity t

137 The enteric nervous system (ENS) forms from migrating neural

138 The enteric nervous system (ENS) forms from the neural crest

139 l gut function relies on the activity of the enteric nervous system (ENS) found within the wall of th

140 The formation of the enteric nervous system (ENS) from neural crest-derived c

141 and A30P lines show robust abnormalities in enteric nervous system (ENS) function and synuclein-immu

142 Although the mature enteric nervous system (ENS) has been shown to retain st

143 sodium channel (VGSC) alpha subunits in the enteric nervous system (ENS) has not been described.

144 lation of two main human tau isoforms in the enteric nervous system (ENS) in CD but not in UC.

145 ssessed the effects of TLR2 signaling on the enteric nervous system (ENS) in mice.

146 root ganglia to the autonomic ganglia of the enteric nervous system (ENS) in the colon.

147 stinal obstruction due to the absence of the enteric nervous system (ENS) in the distal bowel and is

148 se (HSCR) is characterized by absence of the enteric nervous system (ENS) in the distal bowel.

149 During the formation of the enteric nervous system (ENS) in the moth Manduca, approx

150 iets, the consumers' gut microbiota, and the enteric nervous system (ENS) interact to regulate gut mo

151 uring the migration of the precursors of the enteric nervous system (ENS) into the colon.

152 The enteric nervous system (ENS) is a complex network consti

153 The enteric nervous system (ENS) is a major division of the

154 tanding the neurochemical composition of the enteric nervous system (ENS) is critical for elucidating

155 The enteric nervous system (ENS) is derived from vagal and s

156 The enteric nervous system (ENS) is derived from vagal and s

157 h the idea that phenotypic expression in the enteric nervous system (ENS) is determined, in part, by

158 The enteric nervous system (ENS) is essential for digestive

159 The enteric nervous system (ENS) is essential for normal gas

160 The enteric nervous system (ENS) is formed from vagal and sa

161 The enteric nervous system (ENS) is mainly derived from vaga

162 The enteric nervous system (ENS) is organized into neural ci

163 ronal development in vitro; nevertheless, an enteric nervous system (ENS) is present in mice lacking

164 The enteric nervous system (ENS) is sometimes called the "se

165 The enteric nervous system (ENS) is the largest branch of th

166 The enteric nervous system (ENS) is the largest component of

167 S: Neural stem and progenitor cells from the enteric nervous system (ENS) might serve as a source of

168 en have aggregated alpha-synuclein (aSyn) in enteric nervous system (ENS) neurons, which may be assoc

169 es in resident and inflammatory cells in the enteric nervous system (ENS) of macaques during the acut

170 The enteric nervous system (ENS) of the gastrointestinal tra

171 In the embryonic enteric nervous system (ENS) of the moth Manduca sexta,

172 During the formation of the enteric nervous system (ENS) of the moth Manduca sexta,

173 ocate calcium (Ca2+) channel proteins in the enteric nervous system (ENS) of the rat and guinea pig.

174 By using the enteric nervous system (ENS) of the tobacco hornworm Man

175 ce and identity of neural progenitors in the enteric nervous system (ENS) of vertebrates is a matter

176 rinsic denervation but play unknown roles in enteric nervous system (ENS) physiology.

177 complex equilibrium, here, we show that the enteric nervous system (ENS) plays an essential and non-

178 ant oligogenic birth defect that occurs when enteric nervous system (ENS) precursors fail to colonize

179 Enteric nervous system (ENS) precursors migrate extensiv

180 Enteric nervous system (ENS) precursors undergo a comple

181 The enteric nervous system (ENS) predominantly originates fr

182 tion of the bowel, results from a failure of enteric nervous system (ENS) progenitors to migrate, pro

183 The enteric nervous system (ENS) provides the intrinsic neur

184 BACKGROUND & AIMS: The enteric nervous system (ENS) regulates gastrointestinal

185 The enteric nervous system (ENS) regulates numerous gastroin

186 The enteric nervous system (ENS) represents a vast network o

187 The enteric nervous system (ENS) senses and reacts to the dy

188 Advances in understanding of the enteric nervous system (ENS) support the brain-in-the-gu

189 Crohn's disease (CD) and the ability of the enteric nervous system (ENS) to produce PGD2 in inflamma

190 Disordered neurobiology of the enteric nervous system (ENS) underlies a broad assortmen

191 cation and differentiation in the developing enteric nervous system (ENS) was tested.

192 a balanced microbial community and that the enteric nervous system (ENS), a chief regulator of physi

193 array of functions, the bowel relies on the enteric nervous system (ENS), an intricate network of mo

194 estinal obstruction, striking defects in the enteric nervous system (ENS), and abnormal intestinal mo

195 rons are the major excitatory neurons of the enteric nervous system (ENS), and include intrinsic sens

196 function is controlled by its own intrinsic enteric nervous system (ENS), but it is additionally reg

197 of axonal tract configuration in the mature enteric nervous system (ENS), but profound abnormalities

198 ty alterations maybe due to an effect on the enteric nervous system (ENS), but the underlying mechani

199 ointestinal tract, and more specifically the enteric nervous system (ENS), in search of an early biom

200 The zebrafish enteric nervous system (ENS), like those of all other ve

201 e leads to degeneration and autophagy in the enteric nervous system (ENS), particularly in the submuc

202 the neural crest, impacts development of the enteric nervous system (ENS), possibly by regulating the

203 The enteric nervous system (ENS), the intrinsic innervation

204 ium signaling plays an essential role in the enteric nervous system (ENS), the role of CaMKII in neur

205 pathway in the development of the mammalian enteric nervous system (ENS), very little is known regar

206 ointestinal physiology are controlled by the enteric nervous system (ENS), which is composed of neuro

207 long the gut to promote the formation of the enteric nervous system (ENS).

208 tivity is integral to the development of the enteric nervous system (ENS).

209 plored for the treatment of disorders of the enteric nervous system (ENS).

210 r neurogenesis occurs in the adult mammalian enteric nervous system (ENS).

211 in (EC) cells and a smaller 5-HT pool in the enteric nervous system (ENS).

212 their cell bodies are not components of the enteric nervous system (ENS).

213 anized network of ganglia that comprises the enteric nervous system (ENS).

214 icrobes, marketed as probiotics, affects the enteric nervous system (ENS).

215 he entire gastrointestinal tract to form the enteric nervous system (ENS).

216 neural crest cells (ENCCs) to establish the enteric nervous system (ENS).

217 nt roles in the development of the mammalian enteric nervous system (ENS).

218 od flow are controlled and integrated by the enteric nervous system (ENS).

219 e rise to the neurons and glial cells of the enteric nervous system (ENS).

220 s determined by integrative functions of the enteric nervous system (ENS).

221 the neurobiology of P2X(7) receptors in the enteric nervous system (ENS).

222 glia that span its entire length, called the enteric nervous system (ENS).

223 ression of Sema3a, Sema3c, and Sema3d in the enteric nervous system (ENS).

224 ral control of gut functions mediated by the enteric nervous system (ENS).

225 n essential mode of neurotransmission in the enteric nervous system (ENS).

226 ortant in the functional neurobiology of the enteric nervous system (ENS); nevertheless, details for

227 natide reduces food intake and activates the enteric nervous system (ENS; myenteric and submucosal pl

228 ord primary motor neurons (PMN), kidney, and enteric nervous systems (ENS) and have identified areas

229 , have been identified and several mammalian enteric nervous systems express CB1 receptors and produc

230 kinase RET, which is essential for mammalian enteric nervous system formation.

231 effect of this Gaucher mutation on motor and enteric nervous system function in these transgenic anim

232 otential of neural crest stem cells from the enteric nervous system (gut NCSCs) in vivo to evaluate t

233 The enteric nervous system has been studied thus far as an i

234 The enteric nervous system has many neuronal subtypes that c

235 (EGCs), the major cellular component of the enteric nervous system, have long been considered mere s

236 These defects included enteric nervous system hypoplasia, slow GI transit, dimi

237 l neural crest contributed precursors to the enteric nervous system in a regionalised manner.

238 and provide a paradigm for understanding the enteric nervous system in health and disease.

239 pts migration of NCCs and development of the enteric nervous system in mice.

240 nteractions can influence development of the enteric nervous system in mouse models and suggests that

241 emonstrating the intimate involvement of the enteric nervous system in mucosal immunity.

242 Here we examine development of the enteric nervous system in the basal jawless vertebrate t

243 sacral neural crest cells contribute to the enteric nervous system in the hindgut.

244 iving cholinergic excitatory inputs from the enteric nervous system in the murine fundus.

245 studies to describe the regeneration of the enteric nervous system in the sea cucumber Holothuria gl

246 stal ileum, confined to follicles and/or the enteric nervous system, in almost all animals.

247 isceral afferents (sensory) pathways and the enteric nervous system, including the interstitial cells

248 progenitor function in the dentate gyrus or enteric nervous system, indicating regional differences

249 The enteric nervous system integrates secretion and motility

250 ory detection in these processes, disordered enteric nervous system integration in diarrhea and const

251 es reveals that, in the absence of Pax3, the enteric nervous system is ablated from its inception.

252 flecting the current interest in the way the enteric nervous system is altered in disease and the sec

253 flecting the current interest in the way the enteric nervous system is altered in disease.

254 The development of the enteric nervous system is dependent upon the actions of

255 ibution of sacral crest-derived cells to the enteric nervous system is not affected by cocolonization

256 the requirement for erbB2 in maintaining the enteric nervous system is not cell autonomous, but rathe

257 The enteric nervous system is plastic and continues to under

258 tor, free fatty acid receptor (FFA)3, to the enteric nervous system is unknown.

259 Adenosine receptors (ADORs) in the enteric nervous system may be of importance in the contr

260 Thus, differential engagement of the enteric nervous system may partake in bifurcating pro- o

261 Abnormalities in development of the enteric nervous system might therefore contribute to the

262 eural crest cells fated to contribute to the enteric nervous system migrate ventrally away from the n

263 Enteric nervous system neuropathy causes a wide range of

264 BBS, an enteric nervous system neuropeptide, reverses PN-induced

265 In the enteric nervous system, neurotransmitters initiate chang

266 major changes in the smooth muscle layers or enteric nervous system occurred in the absence of these

267 processes of enteric glial cells within the enteric nervous system of CWD-infected Tg(CerPrP-E) mice

268 ade an important contribution to the ancient enteric nervous system of early jawless vertebrates, a r

269 The enteric nervous system of jawed vertebrates arises prima

270 ons of both brain stem emetic nuclei and the enteric nervous system of the gut; and 4) whether select

271 In the developing enteric nervous system of the moth Manduca sexta, an ide

272 This study provides evidence that the enteric nervous system of this echinoderm regenerates af

273 r and neuromodulator in both the central and enteric nervous systems of mammals.

274 in responses to endogenous ligands from the enteric nervous system or dietary sources.

275 be selectively ablated by ganciclovir in the enteric nervous system, or in the injured forebrain or s

276 We provide evidence that the enteric nervous system organizes mixing movements to gen

277 l neural crest to interrupt the migration of enteric nervous system precursor cells and thus create a

278 e expressed very early in the development of enteric nervous system precursors, and are already prese

279 und that control of differentiation of mouse enteric nervous system progenitor cells by EDN3 requires

280 Enteric nervous system progenitor cells may therefore po

281 cial role in the maintenance of multilineage enteric nervous system progenitors.

282 l derived neurotrophic factor (GDNF) induces enteric nervous system regeneration in mouse models of H

283 The enteric nervous system regulates these events, and Mulle

284 Motor neurons in the enteric nervous system release ATP as an inhibitory neur

285 Nitric oxide (NO) produced by the enteric nervous system represents an important regulator

286 recent advances in our understanding of the enteric nervous system, sensory physiology underlying pa

287 In the central and enteric nervous systems, SERT is located in serotonergic

288 We describe neurochemical coding of the enteric nervous system, specifically the myenteric plexu

289 ating GDNF and ET-3 in the patterning of the enteric nervous system, suggest that specific pairing of

290 rity of neurons and glia that constitute the enteric nervous system, the intrinsic innervation of the

291 tite and energy balance by engagement of the enteric nervous system through cannabinoid receptors.

292 In 5-HT-incubated central and enteric nervous system tissue samples and differentiated

293 terface by demonstrating the capacity of the enteric nervous system to influence the microbiota.

294 The enteric nervous system was not affected.

295 Development of the enteric nervous system was studied in Sufu(f/f), Gli3(De

296 year's issue on developmental aspects of the enteric nervous system, we have focused on several key t

297 nal progenitors capable of reconstituting an enteric nervous system when transplanted into a normal d

298 It is mediated by neurons of the enteric nervous system, which form an integrated circuit

299 fore alter innervation and morphology of the enteric nervous system, which may contribute to colonic

300 hesized that Lewy pathology initiates in the enteric nervous system years prior to debut of clinical