ライフサイエンスコーパス: submucosal

1 ric lesions were multiple: 38%, single: 62%, submucosal: 13%, or ulcerated: 13%.

2 d 5-HT release and short-circuit current via submucosal 5-HT3 and 5-HT4 receptors.

3 =250 mug/l) and were higher in patients with submucosal (abdominal, oropharyngeal-laryngeal) attacks

4 nctions connecting the epithelial cells, and submucosal acid sensors, prostaglandins, cytokines, ente

5 he gold standard treatment for patients with submucosal adenocarcinoma who are fit to undergo the pro

6 Submucosal and epithelial IL-17A-positive cells and BAL

7 d profiling of the adaptive immune system in submucosal and mucosal isolated lymphoid follicles (SM-I

8 hythms in the smooth muscle originate at the submucosal and myenteric borders, respectively.

9 situ hybridization revealed that subsets of submucosal and myenteric neurons contained mRNA encoding

10 Subsets of submucosal and myenteric neurons were also D1, D2, or D3

11 DOR localizes specifically to submucosal and myenteric neurons, which might account fo

12 CD8 T cells homed to submucosal and myenteric plexus neurons, 60% of which we

13 attraction is required for the formation of submucosal and pancreatic ganglia.

14 e powder air polishing (GPAP) and a repeated submucosal application of Povidone-iodine.

15 powder air polishing (GPAP), and a repeated submucosal application of povidone-iodine.

16 ween some epithelial cells, with an enlarged submucosal area filled with immune cells and sometimes i

17 ast cells and eosinophils (mostly located in submucosal areas) and, in comparison with subcutaneous t

18 In submucosal areas, CD163(+)CD206(+) DP macrophages predom

19 in the circular muscle coat, and surrounding submucosal arterioles.

20 fects on eosinophil counts in airway mucosal/submucosal biopsy specimens, sputum, bone marrow, and pe

21 ce of MEN1 gastrinomas, which develop within submucosal Brunner's glands.

22 Patients found to have submucosal cancer at their first endoscopy examination w

23 0% for 70 mucosal carcinomas and 34% for 101 submucosal carcinomas (P = 0.001).

24 y in m3 carcinoma is questionable and in all submucosal carcinomas and lesions > or =2 cm it is not i

25 The rate of lymphatic metastasis in submucosal carcinomas was 21% for sm1 (n = 29), 16% for

26 We showed that EBV first infects submucosal CD14(+) monocytes, which then migrate into th

27 n, the first cells likely to be infected are submucosal CD4(+) T cells and dendritic cells of the low

28 l epithelial cells causes soft palate cleft, submucosal cleft and failure of the primary palate to fu

29 Submucosal collagen content in Sham, Delay, and Immediat

30 nically optimal procedure involves excessive submucosal collagen degradation by resident microbes.

31 clusters of epithelial cells residing in the submucosal compartment of extrahepatic bile ducts (EHBDs

32 sion of gel-forming mucins in epithelial and submucosal compartments in CF were similar to normal.

33 s not contain dyskeratotic changes and has a submucosal component, and thus better represents the nor

34 ZIKV infects the mucosal epithelium and submucosal dendritic cells, inducing immune and inflamma

35 estinal wall indicated a high preference for submucosal deposition.

36 a novel artificial simulator for endoscopic submucosal dissection (ESD) as a bridge between instruct

37 resection techniques and devices, endoscopic submucosal dissection (ESD) has been considered as an al

38 In early gastric cancer, endoscopic submucosal dissection (ESD) has been shown to be superio

39 Endoscopic submucosal dissection (ESD) is a newer procedure that is

40 ive Surgery (TAMIS), the other is Endoscopic Submucosal Dissection (ESD).

41 ng performing lesion marking (p = 0.026) and submucosal dissection (p = 0.037).

42 felt that the most difficult techniques were submucosal dissection and hemostasis.

43 endoscopic mucosal resection and endoscopic submucosal dissection are being applied for the treatmen

44 into a single endoscopic session, endoscopic submucosal dissection for Barrett's esophagus neoplasia,

45 In properly selected patients, endoscopic submucosal dissection has been found to have 100% 5-year

46 ents with gastric adenocarcinoma, endoscopic submucosal dissection is a viable alternative to gastric

47 Submucosal dissection techniques are more difficult, ass

48 years, new endoscopic mucosal resection and submucosal dissection techniques have been developed.

49 C risk might be better suited for endoscopic submucosal dissection than for endoscopic mucosal resect

50 (endoscopic mucosal resection and endoscopic submucosal dissection) and translumenal endoscopic proce

51 cosal pre-cutting, circumferential incision, submucosal dissection, and hemostasis.

52 on which patients should undergo endoscopic submucosal dissection, EMR, or surgery.

53 chniques of endoscopic mucosal resection and submucosal dissection, patients will benefit from these

54 Moreover, the combination of submucosal dissection, use of a fluorescent marker, and

55 ivided into two forms, mucosal resection and submucosal dissection.

56 endoscopic mucosal resection and endoscopic submucosal dissection.

57 as feasible for simulated lesion marking and submucosal dissection.

58 tially distributed between the myenteric and submucosal divisions of the ENS.

59 normal age-related decline in proportions of submucosal dopaminergic neurons is exacerbated in Cdnf (

60 We sought to investigate the bronchial submucosal DP2 expression in asthmatic patients and heal

61 Numbers of submucosal DP2(+) cells were increased in asthmatic pati

62 ion were fund: bowel wall thickening (n=21), submucosal edema (n=8), segment wall hyperenhancement (n

63 ry responses in the gut, including increased submucosal edema and release of extracellular DNA from h

64 terial attachment, effacement of microvilli, submucosal edema, mucosal heterophile infiltrates, and S

65 and, in particular, as shown in this study, submucosal edema.

66 y with prominent necrosis, inflammation, and submucosal edema/separation of the lamina propria in the

67 ckness, mucus gland area, collagen area, and submucosal effector inflammatory cells.

68 ates the latest developments in the field of submucosal endoscopy, focuses on POEM and sheds light on

69 eceptor CCR3 was expressed at high levels on submucosal endothelial cells in patients and a murine mo

70 a, with either low (0-0.45 mm(-2)) ) or high submucosal eosinophil (23.43-46.28 mm(-2) ) counts and h

71 In the bronchoscopy group the submucosal eosinophil number in the subjects with asthma

72 Mucosal and submucosal eosinophilia increased over the time course a

73 Submucosal eosinophilia is a marker (and possibly a caus

74 nd cellular inflammation are associated with submucosal eosinophilia.

75 In addition there was an increase in submucosal eosinophils (P = 0.06).

76 d the median (interquartile range) number of submucosal eosinophils was increased in obese (19.4 [11.

77 Group 1 had the highest submucosal eosinophils, as well as high fractional exhal

78 Sputum IL-5 and submucosal eosinophils, but not sputum eosinophils, are

79 lternative to esophagectomy in patients with submucosal esophageal adenocarcinoma (T1b) with low-risk

80 now being proposed as a viable treatment for submucosal esophageal adenocarcinoma.

81 A dominant submucosal fibroid and ischemia greater than or equal to

82 Crypt epithelial mucin loss, submucosal fibrosis, and length of time to explant were

83 All CRF-IR neurons in submucosal ganglia expressed vasoactive intestinal pepti

84 tified in internodal strands, blood vessels, submucosal ganglia, and longitudinal muscle.

85 CSE was present in all submucosal ganglion neurons and in almost all myenteric

86 f the gastrin gene and induces generation of submucosal gastrin-expressing cell hyperplasia.

87 ntrasts these to the unique specification of submucosal gland (SMG) cells.

88 In human airways, oxidative stress-induced submucosal gland cell hypertrophy and hyperplasia, histo

89 by luminal hyaluronan (HA), and treatment of submucosal gland cells with X/XO induced HA depolymeriza

90 We found that MUC5B emerged from submucosal gland ducts in the form of strands composed o

91 ared with non-CF, MUC5B more often filled CF submucosal gland ducts.

92 aCC conductance in human salivary and airway submucosal gland epithelial cells, and IL-4 treated bron

93 l glands, and they suggest that while murine submucosal gland fluid secretion in response to choliner

94 ding defective airway chloride transport and submucosal gland fluid secretion; variably penetrant mec

95 Our results suggest that defective airway submucosal gland function is an early, primary defect in

96 We tested the hypothesis that submucosal gland function is defective early in CF subje

97 osed NHPs developed robust mucus metaplasia, submucosal gland hypertrophy and hyperplasia, airway inf

98 irway defenses include reflex stimulation of submucosal gland mucus secretion by sensory neurons that

99 nce regulator (CFTR) anion channels produced submucosal gland mucus that was abnormally acidic with a

100 hat PDE3A inhibition augments CFTR-dependent submucosal gland secretion and actin skeleton disruption

101 therapeutic approaches to correct defective submucosal gland secretion in CF.

102 IL-4 treated bronchial cells, and stimulated submucosal gland secretion in human bronchi and smooth m

103 teraction was investigated using pig trachea submucosal gland secretion model.

104 Submucosal gland serous acinar cells are primary sites o

105 Here, submucosal gland serous acinar cells were isolated from

106 Airway submucosal gland serous cells express the cystic fibrosi

107 The mechanism for increased submucosal gland volume in CF deserves further study.

108 c feature in the CF airway is an increase in submucosal gland volume, but serous cell transdifferenti

109 olin-stimulated mucus secretion from porcine submucosal glands (75 glands, 7 pigs).

110 Submucosal glands (SMGs) are a prominent structure that

111 oride channels causes defective secretion by submucosal glands (SMGs), leading to persistent bacteria

112 ithelial-derived appendages including airway submucosal glands (SMGs).

113 onsequent reduction in mucus production from submucosal glands and bronchodilation have been proposed

114 We hypothesized that Siglec-8 ligands in submucosal glands and ducts are normally transported to

115 ciliated respiratory epithelium and cells of submucosal glands and ducts.

116 ssociations in airways that contain abundant submucosal glands and goblet cells are uncertain.

117 bsence of goblet cells in tracheal/laryngeal submucosal glands and in the conducting airway epitheliu

118 ted expression of SPLUNC1 in serous cells of submucosal glands and surface epithelial cells of the up

119 T is a primary defect in CF, suggesting that submucosal glands and tethered mucus may be targets for

120 the squamous epithelium, cells of esophageal submucosal glands and their ducts, cells of the proximal

121 Whereas both mouse and human submucosal glands and their serous acinar cells express

122 Airway submucosal glands are important sites of cystic fibrosis

123 Airway submucosal glands are sites of high expression of the cy

124 Here, we studied individual submucosal glands from 1-day-old piglets in situ in expl

125 However, in cystic fibrosis, stimulating submucosal glands has the opposite effect, disrupting mu

126 Airway submucosal glands have been proposed as a primary site f

127 logy revealed similar size and morphology of submucosal glands in CF and non-CF specimens.

128 o measure SubP-mediated secretion from human submucosal glands in lung transplant tissue.

129 airway epithelium and the epithelium of the submucosal glands in the paranasal sinuses.

130 mmunohistochemical data revealed that within submucosal glands of sinonasal tissues, SPLUNC1 and LPLU

131 in ciliated airway epithelial cells and the submucosal glands of the lung.

132 We found that porcine submucosal glands produce MUC5B, whereas goblet cells pr

133 In response to respiratory insults, airway submucosal glands secrete copious mucus strands to incre

134 to periciliary liquid depletion; rather, CF submucosal glands secreted mucus strands that remained t

135 also characterises the ductal metaplasia of submucosal glands that occurs during the development of

136 r mucus, we produced a microfluidic model of submucosal glands using mucus vesicles from banana slugs

137 The volume of submucosal glands was fourfold higher than normal (p = 0

138 Secretions from individual submucosal glands were visualized by light/fluorescence

139 his distal gap segment (which has esophageal submucosal glands) is actually the dilated distal esopha

140 chanisms of salt and water secretion by lung submucosal glands, and they suggest that while murine su

141 per airways in 2 compartments, cartilage and submucosal glands, but they were surprisingly absent fro

142 m, even without hyperviscous secretions from submucosal glands, produces an intrinsically hyperviscou

143 lizes to the surface epithelium and MUC5B to submucosal glands, the finding that Muc5b is secreted by

144 triggers CFTR-dependent ASL secretion by the submucosal glands.

145 reflect a profound decrease in the number of submucosal glands.

146 ononuclear leukocytes and in serous cells of submucosal glands.

147 These cells localize to proximal airway submucosal glands/intercartilagenous rings, neuroepithel

148 F immunoreactivity is restricted to neurons (submucosal > myenteric) and is not seen in glia, interst

149 ities were coincident in subsets of neurons (submucosal > myenteric) in guinea pig and mouse intestin

150 immunocytochemically in neuronal perikarya (submucosal >> myenteric plexus; small intestine > stomac

151 t a clear watershed between deep mucosal and submucosal infiltration does not exist.

152 Histologic analysis of mucosal and submucosal infiltration in thirds has shown an increasin

153 Submucosal infiltration of inflammatory cells preceded a

154 equent exacerbators, blood eosinophilia, and submucosal infiltration of T cells and macrophages.

155 Using immunohistochemistry, epithelial and submucosal inflammatory cells and remodelling markers we

156 Three female pigs underwent a submucosal injection of the bladder with fluorescent-tag

157 diclofenac HPbetaCD administered as a local submucosal injection prior to lower third molar surgery.

158 ity of diclofenac HPbetaCD used locally as a submucosal injection prior to third molar surgery.

159 20 mm, IRR of snare removal with or without submucosal injection, and IRR for forceps and cold snare

160 ultiple gas collections in the subserosal or submucosal intestinal wall of the large or small intesti

161 e mucosa (T1a) in 75 patients (60%), whereas submucosal invasion (T1b) was present in 51 patients (40

162 ion are associated with an increased risk of submucosal invasion and lymph node metastases and should

163 Patients with submucosal invasion are not suitable for endoscopic trea

164 e independent risk factors, whereas depth of submucosal invasion is not an independent risk factor of

165 Depth of submucosal invasion is used as a key predictor of lympha

166 Subclassification of submucosal invasion showed that 5 of 22 "first third of

167 ied as independent risk factors whereas deep submucosal invasion was only a dependent (P = 0.025) ris

168 investigated were; age, sex, tumor location, submucosal invasion, grade of differentiation, mucinous

169 confirmed our findings regarding the role of submucosal invasion, LVI, and age.

170 t is important to identify those at risk for submucosal invasive cancer (SMIC).

171 verall prevalence of NP-CRNs with in situ or submucosal invasive carcinoma was 0.82% (95% CI, 0.46%-1

172 usted association of NP-CRNs with in situ or submucosal invasive carcinoma was also observed in subpo

173 cal progression from APC-mutant neoplasia to submucosal invasive tumor.

174 acute C1-INH-HAE attacks, particularly with submucosal involvement.

175 f a saline injection, to separate the mucosa-submucosal layer, followed by a cap-assisted snare resec

176 lls could underlie fibrosis of the mucosa or submucosal layers are presented.

177 tis is generally confined to the mucosal and submucosal layers, although Crohn's colitis may be trans

178 n vivo imaging of lung tumors in the mucosal/submucosal layers, providing real-time fluorescence guid

179 ound is a key component of the evaluation of submucosal lesions of the gastrointestinal tract, allowi

180 seful in separating these lesions from other submucosal lesions of the gastrointestinal tract.

181 ment of pancreatic disease and evaluation of submucosal lesions.

182 Lacteals and submucosal lymphatic capillaries of the intestine were a

183 ionally assess the impact of tumor-adjacent, submucosal mast cell accumulation in murine and human in

184 Submucosal mast cell, neutrophil, and lymphocyte counts

185 There was a correlation between submucosal mast cells and the early-phase clinical respo

186 Submucosal mast cells were not affected by corticosteroi

187 on in asthma; although it has been linked to submucosal matrix deposition, its relationship with othe

188 on an FDA-approved porcine small intestinal submucosal membrane (pSIS), and they retained differenti

189 Peri-implant submucosal microbial samples were collected from 85 pati

190 y, EndoMT was observed in rectal mucosal and submucosal microvessels in a preclinical model of radiat

191 espect to virulence factors, suggesting that submucosal monocytes/macrophages are the main source of

192 and trefoil factors, protective functions of submucosal mononuclear cells, junctional proteins affect

193 l colonic epithelium, smooth muscle, and the submucosal myenteric plexus.

194 ahexaenoic acid was increased in mucosal and submucosal nasal-biopsy specimens (P<0.001) and rectal-b

195 mum [25th-75th IQR, 3.7-4.6 mum], P = 0.02), submucosal nerves (1.0 per thousand [25th-75th IQR, 0.7-

196 yenteric neuron to glia ratio, reduced colon submucosal neuron density, and increased colon myenteric

197 Submucosal neuron distribution varied among imaged colon

198 ot dopamine-restricted; proportions of other submucosal neurons (NOS-, GABA-, and CGRP-expressing), a

199 Removal of the submucosal neurons abolished the gradient.

200 The deficits in submucosal neurons are reflected functionally in delayed

201 e calcium imaging, we compared activation of submucosal neurons by the TRPV1 agonist capsaicin in rec

202 The majority of submucosal neurons contained HO-2 immunoreactivity (HO-2

203 Moreover, TRPV1 responses of submucosal neurons from healthy volunteers could be pote

204 TRPV1 responses of submucosal neurons from patients with IBS were potentiat

205 Fos-LI dose-dependently in the myenteric and submucosal neurons of the duodenum, but not jejunum and

206 Cholinergic submucosal neurons reacted with antibodies against 5-HT(

207 and 71% in the adult myenteric plexus, when submucosal neurons were also OTR-immunoreactive.

208 in the soma of the majority of myenteric and submucosal neurons, although faint immunoreactivity was

209 f Fos-immunoreactive nuclei of myenteric and submucosal neurons, following CCK injection.

210 due to CO, and that the source of CO is the submucosal neurons.

211 aintenance of dopaminergic and other sets of submucosal neurons.

212 elevated excitability in both myenteric and submucosal neurons.

213 Submucosal neutrophils were not increased in children wi

214 scopic imaging technique can reliably assess submucosal or lymphangio-invasion.

215 with low-grade and high-grade dysplasia and submucosal or more advanced cancer were excluded.

216 Segments of canine colon were pinned with submucosal or myenteric surface uppermost or cut in cros

217 s according to the 5-FU dose, and in gastric submucosal orthotopic xenografts of MKN45/5FU cells.

218 The aim of the study is to compare the submucosal peri-implant microflora between FES and PES.

219 ificant difference in the composition of the submucosal peri-implant microflora in healthy and peri-i

220 dies reporting in the same article about the submucosal peri-implant microflora of FES and PES were s

221 evels of dissolved titanium were detected in submucosal plaque around implants with peri-implantitis

222 r fluid (GCF) and a selection of subgingival/submucosal plaque bacteria from clinically healthy or di

223 s to compare levels of dissolved titanium in submucosal plaque collected from healthy implants and im

224 Submucosal plaque from 20 implants with peri-implantitis

225 haracterized by neutrophils and infiltrating submucosal plasma cells consisting primarily of T cells.

226 ressed in the neurons of human myenteric and submucosal plexi.

227 CRF-IR cell bodies were more abundant in the submucosal plexus (29.9-38.0%) than in the myenteric ple

228 small intestine and ICC associated with the submucosal plexus (ICC-SMP) in the colon.

229 even per cent of CSE positive neurons in the submucosal plexus and 50% of CSE positive neurons in the

230 gic or sympathetic markers terminated in the submucosal plexus and mucosa of the duodenum.

231 TRPC3-IR was found only in the submucosal plexus and was expressed exclusively by neuro

232 urons, while being on axonal compartments of submucosal plexus neurons.

233 tions of adult (8-12-week old) myenteric and submucosal plexus stained with NADPH diaphorase (neurons

234 trast, human stomachs have a clearly defined submucosal plexus that contains a variety of transmitter

235 mucosa-submucosa preparations (including the submucosal plexus) of rat proximal colon, carbachol (CCh

236 In the submucosal plexus, CRF1 receptor immunoreactivity was fo

237 In the submucosal plexus, DOReGFP was detected in neuropeptide

238 oglial structures similar to a myenteric and submucosal plexus, had functional interstitial cells of

239 e also observed in the myoenteric plexus and submucosal plexus, involving enteric neurons with enteri

240 nduced slow EPSP-like response in guinea pig submucosal plexus, suggesting that CaMKII activity is re

241 In the submucosal plexus, TRPC4/6-IR was expressed exclusively

242 l as by TTX, hexamethonium or removal of the submucosal plexus.

243 rgic secretomotor/vasodilator neurons in the submucosal plexus.

244 ic nervous system (ENS), particularly in the submucosal plexus.

245 d noncholinergic secretomotor neurons in the submucosal plexus.

246 neurons, but was abundantly expressed in the submucosal plexus.

247 sensory elements did not lie adjacent to the submucosal plexus.

248 immunoreactivity was rarely observed in the submucosal plexus.

249 throughout the gut: the myenteric plexus and submucosal plexus.

250 CRF-IR fibers persisted in the myenteric and submucosal plexuses after 7 days in organotypic culture.

251 The myenteric and submucosal plexuses and DVC were processed for detection

252 was expressed in both the myenteric and the submucosal plexuses of all regions of the large and smal

253 anglia, and the ganglia of the myenteric and submucosal plexuses of the duodenum following intraperit

254 Myenteric and submucosal plexuses were isolated from all 4 groups of m

255 e enteric nervous system (ENS; myenteric and submucosal plexuses) of the gastrointestinal (GI) tract

256 rve fibers were present in the myenteric and submucosal plexuses, in the circular muscle coat, and su

257 calized in nerve fibers of the myenteric and submucosal plexuses, muscularis externa and lamina propr

258 or mRNA, but not CRF2, in both myenteric and submucosal plexuses.

259 onoclonal antibody fluorescence intensity in submucosal postcapillary venules with the use of intravi

260 status was significantly associated with the submucosal presence of Porphyromonas gingivalis (Pg), Pr

261 high-speed video to infer information about submucosal processes.

262 acetylcholine, two critical mediators in the submucosal reflex pathway.

263 the outer mesenchyme, but is absent from the submucosal region, supporting the presence of both ENCC-

264 Submucosal regions with high virally induced BMP4 expres

265 Stricturing associated with endoscopic submucosal resection and circumferential endoscopic muco

266 olyp sizes larger than 20 mm, and endoscopic submucosal resection and/or dissection as polypectomy ap

267 Endoscopic submucosal resection was developed to increase en-bloc r

268 cal features, such as the esophageal mucosal-submucosal separation, pulmonary alveoli and intestinal

269 Submucosal smooth muscle cells express bone morphogeneti

270 ) through the ICC-SM network lying along the submucosal surface of the circular muscle (CM).

271 ound epithelial cell (EpC) mucin release and submucosal swelling in the nasal mucosa of mice that dep

272 4 one log lower than that required to elicit submucosal swelling.

273 f lymph node metastases for intramucosal and submucosal (T1) esophageal adenocarcinoma and to analyze

274 copic therapy (ET) for intramucosal (T1a) or submucosal (T1b) esophageal carcinoma.

275 ic viruses that would then be able to infect submucosal target cells, including T cells and macrophag

276 by marked recruitment of inflammatory cells, submucosal thickening, goblet cell metaplasia, and incre

277 ECM organization correlated positively with submucosal thickness.

278 Mucosal and submucosal tissue from patients with CD or ulcerative co

279 e chronic inflammatory response resulting in submucosal tissue remodeling and scarring.

280 self-limiting edema of the subcutaneous and submucosal tissue, due to a temporary increase in vascul

281 ) eosinophils remained TUNEL negative in the submucosal tissue, throughout the 10-day period after Af

282 prolonged release of nanoparticles into the submucosal tissue.

283 ux of allergens, toxins, and microbes to the submucosal tissue.

284 Immature DCs (iDCs) located in submucosal tissues can capture HIV-1 and migrate to lymp

285 characterized by swelling of subcutaneous or submucosal tissues.

286 Ectopic pancreas is an infrequent submucosal tumor in the gastrointestinal tract defined a

287 osal tumors but increased significantly with submucosal tumor invasion (22%)[P = 0.0003].

288 surface squamous epithelium disguising as a submucosal tumor.

289 ostic measure of choice in the evaluation of submucosal tumors of the GI tract, and EUS criteria have

290 s these tumors closely mimic the mesenchymal submucosal tumors such as lipoma, leiomyoma, and gastroi

291 plasia, epithelial cell Cox-2 expression and submucosal tumour invasion, as well as increased nuclear

292 ing during third-space procedures either for submucosal tunnel creation or myotomy confirmation, with

293 Peroral endoscopic myotomy (POEM) and submucosal tunneling and endoscopic resection (STER) hav

294 A greater submucosal type I and III collagen expression and tenasc

295 the rectum (DCHR), an extremely rare benign submucosal vascular intestinal tumour originating from t

296 The development of enlarged, congestive submucosal veins could play a role in these late bleedin

297 tion specimen showed enlarged and congestive submucosal veins in both patients.

298 Increased numbers of submucosal vessels are a consistent pathologic component

299 hils also failed to extravasate from gastric submucosal vessels in a murine model of Helicobacter pyl

300 patients (63.2%) showed pronounced signs of submucosal VM with active (47.3%) or previous (15.7%) bl