ライフサイエンスコーパス: diaphragmatic

1 However, diaphragmatic abnormalities at the initial phase of crit

2 enic nerve stimulation method allowing early diaphragmatic activation even in deep sedation and, 2) m

3 laryngeal adductor, laryngeal abductor, and diaphragmatic activities, resulting in central apnea wit

4 Diaphragmatic activity emerged out of a background apnoe

5 Patients with ILD had greater diaphragmatic activity, whereas patients with COPD had g

6 ilation with muscle paralysis and absence of diaphragmatic activity.

7 and to identify risk factors that can worsen diaphragmatic activity.

8 A total of 218 patients (14%) had diaphragmatic agenesis and underwent repair.

9 When patients with diaphragmatic agenesis from the first 2 years were compa

10 The survivors with diaphragmatic agenesis had prolonged hospital stays comp

11 Following 6 h and 18 h of MV, diaphragmatic Akt activation decreased in parallel with

12 In multivariate analysis sniff trans-diaphragmatic and esophageal pressure, twitch trans-diap

13 e lower sternum in association with anterior diaphragmatic and ventral abdominal wall defects suggest

14 transcription factors involved in thoracic, diaphragmatic, and esophageal development or proteins in

15 nd-expiratory pressure in the recruitment of diaphragmatic atelectasis.

16 Prolonged mechanical ventilation results in diaphragmatic atrophy and contractile dysfunction in ani

17 e apocynin-induced attenuation of MV-induced diaphragmatic atrophy and contractile dysfunction occurr

18 olonged pressure support ventilation promote diaphragmatic atrophy and contractile dysfunction.

19 fibers and contribute to ventilator-induced diaphragmatic atrophy and contractile dysfunction.

20 tenuated both mechanical ventilation-induced diaphragmatic atrophy and contractile dysfunction.

21 Prolonged mechanical ventilation can promote diaphragmatic atrophy and contractile dysfunction.

22 Mechanical ventilation contributes to diaphragmatic atrophy and dysfunction, and few technique

23 lation, pressure support ventilation-induced diaphragmatic atrophy and weakness are associated with b

24 18 hrs of mechanical ventilation results in diaphragmatic atrophy in both laboratory animals and hum

25 the antioxidant Trolox attenuates MV-induced diaphragmatic atrophy independent of alterations in Akt

26 We tested the hypothesis that MV-induced diaphragmatic atrophy is associated with a loss of myonu

27 thesized that mechanical ventilation-induced diaphragmatic atrophy is associated with decreased synth

28 indicate that mechanical ventilation-induced diaphragmatic atrophy is dependent on the activation of

29 revealed that mechanical ventilation-induced diaphragmatic atrophy is due to increased diaphragmatic

30 relationship between ventilator support and diaphragmatic atrophy rate.

31 te the mechanisms responsible for MV-induced diaphragmatic atrophy, we tested the hypothesis that con

32 ntrolled mechanical ventilation (MV)-induced diaphragmatic atrophy.

33 d diaphragmatic maximal force production and diaphragmatic atrophy.

34 The non-AC images showed breast and/or diaphragmatic attenuation artifacts severe enough to hav

35 mechanical ventilation results in decreased diaphragmatic blood flow and induces an oxygen supply-de

36 when subjects inspired using a predominantly diaphragmatic breath at rest (DeltaP(GA) = > 5 cmH(2)O,

37 During the ensuing expiratory phase of a diaphragmatic breath, there was a large resurgence of fe

38 The pattern of modulation during ribcage and diaphragmatic breathing persisted during both mild (peak

39 Diaphragmatic calpain activity was significantly increas

40 ibition of caspase-3 prevented activation of diaphragmatic calpain.

41 mechanical ventilation-induced activation of diaphragmatic caspase-3 and inhibition of caspase-3 prev

42 esenchymal cultures of WT embryonic day 13.5 diaphragmatic cells.

43 d the capacity to contribute to cells in the diaphragmatic central tendon and lung mesenchyme, indica

44 Recording of diaphragmatic CMAP using a catheter positioned in a subd

45 neurysm, impaired pulmonary function, and/or diaphragmatic collapse.

46 the PN was paced at 60 beats per minute and diaphragmatic compound motor action potential (CMAP) amp

47 the right PN at 60 per minute and recording diaphragmatic compound motor action potential (CMAP) via

48 tenuated this mechanical ventilation-induced diaphragmatic contractile deficit.

49 Controlled mechanical ventilation leads to diaphragmatic contractile dysfunction and atrophy.

50 chanical ventilation is also associated with diaphragmatic contractile dysfunction.

51 We confirmed that MTP mice had normal diaphragmatic contractile properties; however, MTP mice

52 us between oxidative stress and the impaired diaphragmatic contractility that develops during MV.

53 ein-1, and tumor necrosis factor-alpha), and diaphragmatic contractility were evaluated after 24 hour

54 Diaphragmatic contractility, assessed as transdiaphragma

55 ssure as a less invasive technique to assess diaphragmatic contractility.

56 In turn, the resulting diaphragmatic contraction delayed and reduced the expira

57 hypothesized the occurrence of an expiratory diaphragmatic contraction directed at stabilizing periph

58 ich transvenously stimulates a nerve causing diaphragmatic contraction similar to normal breathing.

59 Whether there is an expiratory diaphragmatic contraction that preserves lung patency ha

60 afferent fibers was recorded during rhythmic diaphragmatic contractions before and after the onset of

61 rural diaphragm was recorded during rhythmic diaphragmatic contractions before the onset of and durin

62 We conclude that preserving diaphragmatic contractions during mechanical ventilation

63 ers discharged more (p<0.05) during rhythmic diaphragmatic contractions when the diaphragm was fatigu

64 The effects of diaphragmatic contractions with assisted mechanical vent

65 PH near the level of the diaphragmatic crura is an insensitive but relatively spe

66 sence or absence of PH near the level of the diaphragmatic crura was retrospectively established by a

67 he celiac axis by fibrous attachments of the diaphragmatic crura, the median arcuate ligament.

68 sternal defect, pericardial defect, anterior diaphragmatic defect or intracardiac anomalies.

69 ng single-gene knockout mice associated with diaphragmatic defects, rare monogenetic disorders in hum

70 identified a range of previously undetected diaphragmatic defects.

71 defined as bulbar, upper limb, lower limb or diaphragmatic), diagnosis, functional involvement of a s

72 ry signal was compared with an MR measure of diaphragmatic displacement via a pencil-beam navigator.

73 and causes artifactual defects predicted by diaphragmatic displacement, body mass index, and heart s

74 lated spatially with the crural sling during diaphragmatic displacement.

75 l hepatocellular carcinoma (HCC) against the diaphragmatic dome.

76 Ventilator-induced diaphragmatic dysfunction (VIDD) refers to the diaphragm

77 henomenon, referred to as ventilator-induced diaphragmatic dysfunction (VIDD), is poorly understood.

78 ion support can attenuate ventilator-induced diaphragmatic dysfunction but corresponding human data a

79 Diaphragmatic dysfunction is common in MV patients and i

80 insights into the role of open lung biopsy, diaphragmatic dysfunction, and a potential mechanism for

81 n, hemothorax, atelectasis, pulmonary edema, diaphragmatic dysfunction, and pneumonia.

82 ls and humans can lead to ventilator-induced diaphragmatic dysfunction, which includes muscle atrophy

83 hrenic nerve output results in postoperative diaphragmatic dysfunction.

84 athophysiologic origin of ventilator-induced diaphragmatic dysfunction.

85 ications for the treatment of sepsis-induced diaphragmatic dysfunction.

86 Despite greater load (p = 0.04) and diaphragmatic effort (p = 0.01), the weaning failure pat

87 Diaphragmatic electric activity during expiration increa

88 We recorded the diaphragmatic electric activity during expiration, dynam

89 extent with lower lung volume, indicating a diaphragmatic electromechanical coupling during spontane

90 e superior vena cava, all patients underwent diaphragmatic electromyographic monitoring using surface

91 each) during incremental cycle exercise with diaphragmatic electromyography (EMGdi) and respiratory p

92 Diaphragmatic electromyography can predict PNP with a co

93 storation of RSA using an hCPG that receives diaphragmatic electromyography input and use it to stimu

94 ons increased respiratory frequency (fR) and diaphragmatic EMG (dEMG) amplitude in relation to the du

95 (2) was higher and intercostal, scalene, and diaphragmatic EMG activity was reduced using NIOV+O(2) c

96 t patients displayed poor agreement with the diaphragmatic EMG measurement of neural TI.

97 The loss of diaphragmatic expiratory contraction during mechanical v

98 The increase in spindle discharge during diaphragmatic fatigue is inconsistent with the notion th

99 we hypothesized that these patients develop diaphragmatic fatigue.

100 is that MV is associated with atrophy of all diaphragmatic fiber types, increased diaphragmatic prote

101 ation decreased the cross-sectional areas of diaphragmatic fibers by half or more.

102 In addition, diaphragmatic force and oxidative stress after exposure

103 ssisted mechanical ventilation will preserve diaphragmatic force and prevent overexpression of MAF-bo

104 The magnitude of the diaphragmatic force and the relative contributions of th

105 y, administration of bortezomib improved the diaphragmatic force compared to mechanically ventilated

106 PD-associated diaphragm remodeling decreases diaphragmatic force generation by adaptations within eac

107 unit pressure, the inspiratory effect of the diaphragmatic force on the lower ribs is equal to the ex

108 ulbospinal fibres and remarkable recovery of diaphragmatic function.

109 function, and few techniques exist to assess diaphragmatic function: the purpose of this study was to

110 halocele (adjusted odds ratio (aOR) = 2.68), diaphragmatic hernia (aOR = 2.58), small intestinal atre

111 d SOX7 confer a high risk of both congenital diaphragmatic hernia (CDH) and cardiac defects.

112 uman fetuses with severe isolated congenital diaphragmatic hernia (CDH) and changes in tracheal and a

113 Congenital diaphragmatic hernia (CDH) and esophageal atresia with t

114 ethality at birth, reminiscent of congenital diaphragmatic hernia (CDH) cases in humans.

115 Congenital diaphragmatic hernia (CDH) is a common (1 in 3,000 live

116 Congenital diaphragmatic hernia (CDH) is a common and severe birth

117 Congenital diaphragmatic hernia (CDH) is a common birth defect that

118 Congenital diaphragmatic hernia (CDH) is a common birth malformatio

119 Congenital diaphragmatic hernia (CDH) is a common life-threatening

120 PURPOSE OF REVIEW: Congenital diaphragmatic hernia (CDH) is a rare developmental defec

121 Congenital diaphragmatic hernia (CDH) is a relatively common birth

122 Congenital diaphragmatic hernia (CDH) is a serious birth defect tha

123 Congenital diaphragmatic hernia (CDH) is a severe birth defect.

124 Congenital diaphragmatic hernia (CDH) is a significant cause of ped

125 Congenital diaphragmatic hernia (CDH) is an often fatal birth defec

126 Congenital diaphragmatic hernia (CDH) is one of the most common and

127 Congenital diaphragmatic hernia (CDH) remains a significant cause o

128 Despite modern treatments, congenital diaphragmatic hernia (CDH) remains associated with varia

129 Congenital diaphragmatic hernia (CDH), a life-threatening anomaly,

130 on the highest risk patients with congenital diaphragmatic hernia (CDH), those with agenesis of the d

131 adily identifiable perinatally in congenital diaphragmatic hernia (CDH), where the typical pulmonary

132 oxia, and malformations including congenital diaphragmatic hernia (CDH).

133 used therapy among patients with congenital diaphragmatic hernia (CDH); however, data to support its

134 Non-isolated congenital diaphragmatic hernia (CDH+) is a severe birth defect tha

135 TM, n=15), tracheal occlusion for congenital diaphragmatic hernia (CDH, n=13), and resection of sacro

136 n and that had severe, left-sided congenital diaphragmatic hernia (liver herniation and a lung-to-hea

137 cholelithiasis (n=2), pyelonephritis (n=2), diaphragmatic hernia (n=1), cecal bascule (n=1), ileus (

138 , $111566 [IQR, $91195-$139936]), congenital diaphragmatic hernia (WIQR, $43948; median, $154730 [IQR

139 s those with sickle cell disease, congenital diaphragmatic hernia and Eisenmenger syndrome who may be

140 ardiac arrest as a consequence of late-onset diaphragmatic hernia and intestinal strangulation.

141 While animal models of congenital diaphragmatic hernia are surfactant deficient, controver

142 The severity of the congenital diaphragmatic hernia at randomization, as measured by th

143 vomiting, diagnosed to have an incarcerated diaphragmatic hernia causing gastric pneumatosis and res

144 performed in prenatally diagnosed congenital diaphragmatic hernia infants (n = 171) born between Nove

145 on groups in prenatally diagnosed congenital diaphragmatic hernia infants.

146 Congenital diaphragmatic hernia is a life-threatening anomaly with

147 f pediatric survivors treated for congenital diaphragmatic hernia is presented.

148 Congenital diaphragmatic hernia occurs in approximately 1 in every

149 cians who encounter children with congenital diaphragmatic hernia on either a regular or infrequent b

150 y clinician treating infants with congenital diaphragmatic hernia regarding the latest developments a

151 covered as an incidental finding, late-onset diaphragmatic hernia should be considered a surgical eme

152 ely collected patient data in the Congenital Diaphragmatic Hernia Study Group registry between Januar

153 oreal membrane oxygenation and/or congenital diaphragmatic hernia with an intelligence quotient great

154 all cases of isolated left-sided congenital diaphragmatic hernia without prenatal intervention (n =

155 hypoplasia, and the fetuses with congenital diaphragmatic hernia, at least a portion of the diaphrag

156 agenesis of the corpus callosum, congenital diaphragmatic hernia, facial dysmorphology, ocular anoma

157 -reduction defects, polydactyly, syndactyly, diaphragmatic hernia, heart defects overall, pulmonary-a

158 urysm, developmental emphysema, inguinal and diaphragmatic hernia, joint laxity, and pectus excavatum

159 wel perforation, bowel resection, congenital diaphragmatic hernia, oesophageal atresia, and ruptured

160 chial arch derivatives, heart malformations, diaphragmatic hernia, renal hypoplasia and ambiguous gen

161 girl 32 days after a repair of a congenital diaphragmatic hernia, with ultrasound signs of acute bow

162 the lungs complicated by tracheomalacia and diaphragmatic hernia.

163 orporeal membrane oxygenation and congenital diaphragmatic hernia.

164 tal lung function in infants with congenital diaphragmatic hernia.

165 lastic lung of the ovine model of congenital diaphragmatic hernia.

166 may improve the outcome of severe congenital diaphragmatic hernia.

167 es in this cohort of fetuses with congenital diaphragmatic hernia.

168 egment of small bowel that perforated into a diaphragmatic hernia.

169 med in 26 fetuses with unilateral congenital diaphragmatic hernia.

170 fetuses with isolated left-sided congenital diaphragmatic hernia.

171 patients with tracheoesophageal fistula and diaphragmatic hernia.

172 as bronchopulmonary dysplasia and congenital diaphragmatic hernia.

173 ragm development are the cause of congenital diaphragmatic hernias (CDHs), a common and often lethal

174 hic lung-head ratio in left-sided congenital diaphragmatic hernias evaluated before 27 weeks gestatio

175 Sox7(Deltaex2/+) mice developed retrosternal diaphragmatic hernias located in the anterior muscular p

176 cts, renal agenesis and develop retrosternal diaphragmatic hernias which are covered by a membranous

177 ital anomalies, pyloric stenosis, congenital diaphragmatic hernias, cardiac septal defects, hearing l

178 gous for the dd allele possess communicating diaphragmatic hernias, central tendon patterning defects

179 efects in the heterozygotes included midline diaphragmatic hernias, dilated distal airways, and cardi

180 lities, these infertile males presented with diaphragmatic hernias, hemoperitoneum and many secondary

181 minimal EGJ opening aperture occurred at the diaphragmatic hiatus in all subjects.

182 ion of the gastroesophageal junction and the diaphragmatic hiatus were 0.88 and 0.85, respectively.

183 lso indicate that differential regulation of diaphragmatic IGF-1-PI3K-Akt signalling exists during th

184 deep sedation is inevitably associated with diaphragmatic inactivation.

185 he combination of 18 to 69 hours of complete diaphragmatic inactivity and mechanical ventilation resu

186 n for 18 to 69 hours; among control subjects diaphragmatic inactivity and mechanical ventilation were

187 Case subjects had diaphragmatic inactivity and underwent mechanical ventil

188 tly revealed that 18 to 69 hours of complete diaphragmatic inactivity associated with mechanical vent

189 versupply relative to demand, resulting from diaphragmatic inactivity during MV, could play an import

190 Research in animals has shown that diaphragmatic inactivity produces severe injury and atro

191 Six of the 27 did not have ECG evidence of diaphragmatic infarction.

192 Twenty-seven patients had VCG evidence of diaphragmatic infarction; 25 of this group had severe na

193 Diaphragmatic injuries occur in 0.8-8% of patients with

194 w reliable bedside laparoscopy for suspected diaphragmatic injuries.

195 post-saline group caused significantly less diaphragmatic injury (P <.05).

196 ories reviewed their imaging for evidence of diaphragmatic injury and ablation success.

197 Diaphragmatic injury was graded as 0, no injury; 1, inju

198 ion may reduce the frequency and severity of diaphragmatic injury when adjacent liver is treated with

199 o retrospectively determine the frequency of diaphragmatic injury when percutaneous hepatic radiofreq

200 rs adjacent to the diaphragm, five (17%) had diaphragmatic injury, which was clinically apparent with

201 s underwent elective laparoscopy to rule out diaphragmatic injury.

202 esent radiological findings in patients with diaphragmatic injury.

203 athing-which effectively pull in air-are the diaphragmatic, intercostal, spine, and neck muscles.

204 the time of presentation, with preferential diaphragmatic involvement in some cases.

205 ement, and severe shoulder pain secondary to diaphragmatic irritation.

206 controlled ventilation, we assessed in vitro diaphragmatic isometric and isotonic contractile functio

207 ions with assisted mechanical ventilation on diaphragmatic isometric, isotonic contractile properties

208 ingly, independent of MV, apocynin increased diaphragmatic levels of calpastatin, an endogenous calpa

209 on with time-matched controls, did not alter diaphragmatic levels of Type I and IIx myosin heavy chai

210 Diaphragmatic lipid accumulation and responses of master

211 velopment of new medicines that can maintain diaphragmatic mass and function during prolonged mechani

212 chanical ventilation (MV) results in reduced diaphragmatic maximal force production and diaphragmatic

213 esulted in a significant reduction (-17%) in diaphragmatic maximal tetanic force.

214 mechanical ventilation-induced increases in diaphragmatic mitochondrial reactive oxygen species emis

215 Diaphragmatic motion decreased in 30 of 49 patients and

216 was terminated on any perceived reduction in diaphragmatic motion or a 30% decrease in the compound m

217 ore marked in the 33 PVs with a reduction in diaphragmatic motion than in those without (40.9+/-15.3%

218 cient to bring about recovery of respiratory diaphragmatic motor activity.

219 specific co-localization of BoNT/C1 ad with diaphragmatic motor nerve terminals.

220 usions but also look at lung recruitment and diaphragmatic movement, hence can aid in deciding extuba

221 iaphragm and may be weakly expressed in some diaphragmatic muscle cells.

222 lated that MV would result in atrophy of all diaphragmatic muscle fiber types.

223 ed to the direct action of radially oriented diaphragmatic muscle fibres.

224 is and acute degeneration of the cardiac and diaphragmatic myocytes.

225 MV resulted in a decrease (p < 0.05) in diaphragmatic myofibrillar protein and the cross-section

226 Diaphragmatic myonuclear content decreased after 12 h of

227 emphysematous hamsters reflecting a greater diaphragmatic O2 utilization at rest and a lower O2 extr

228 Prolonged mechanical ventilation results in diaphragmatic oxidative injury, elevated proteolysis, fi

229 trophy and weakness are associated with both diaphragmatic oxidative stress and protease activation.

230 n mice, induction of hyperlipidemia worsened diaphragmatic oxidative stress during MV, whereas transg

231 aphragmatic protease activity, and augmented diaphragmatic oxidative stress.

232 late that this ventilator-induced decline in diaphragmatic oxygenation could promote a hypoxia-induce

233 gement including noninvasive ventilation and diaphragmatic pacing, secretions, nutrition, dysphagia a

234 A group of 13 patients with early onset diaphragmatic palsy in association with a progressive ne

235 Infantile myopathies with diaphragmatic paralysis are genetically heterogeneous, a

236 Diaphragmatic paralysis was higher (3.5% vs. 0.6%; p = 0

237 t(s) on the phrenic nerve may result in hemi-diaphragmatic paresis.

238 This approach reduced diaphragmatic pathophysiology and markedly improved diap

239 y, pelvic, parietal anterior, left and right diaphragmatic peritonectomy), 14 visceral resections, 5

240 bnormal hot spots in subcutaneous tissue and diaphragmatic pleura of the left hemithorax.

241 We conclude that diaphragmatic PO2m (and therefore microvascular O2 conte

242 gmatic and esophageal pressure, twitch trans-diaphragmatic pressure (Tw Pdi), age, and maximal static

243 to the cerebral cortex which can be used for diaphragmatic proprioception and somatosensation.

244 of all diaphragmatic fiber types, increased diaphragmatic protease activity, and augmented diaphragm

245 ed diaphragmatic atrophy is due to increased diaphragmatic protein breakdown and decreased protein sy

246 rther, MV promoted an increase (p < 0.05) in diaphragmatic protein degradation along with elevated (p

247 chain protein synthesis; this depression in diaphragmatic protein synthesis persisted throughout 18

248 ically ventilated for 6, 12, or 18 hours and diaphragmatic protein synthesis was measured in vivo.

249 s that controlled MV results in oxidation of diaphragmatic proteins and increased diaphragmatic prote

250 or regulating mechanical ventilation-induced diaphragmatic proteolysis and contractile dysfunction.

251 In contrast, diaphragmatic proteolysis did not differ between control

252 tion of diaphragmatic proteins and increased diaphragmatic proteolysis due to elevated protease activ

253 These findings are consistent with increased diaphragmatic proteolysis during inactivity.

254 Total diaphragmatic proteolysis was increased 105% in mechanic

255 contribute to mechanical ventilation-induced diaphragmatic proteolysis.

256 CMV increased diaphragmatic pyruvate (40 vs. 146 mumol L(-1) after 5:2

257 and frequently develops in the dependent and diaphragmatic regions.

258 for recruiting atelectasis in dependent and diaphragmatic regions.

259 Diaphragmatic rupture does not resolve spontaneously and

260 The knowledge of the CT findings suggesting diaphragmatic rupture improves the detection of injuries

261 The most important signs of the diaphragmatic rupture in computed tomography include: se

262 The clinical diagnosis of diaphragmatic rupture is difficult and may be overshadow

263 In our study blunt diaphragmatic rupture occurred in 6% of cases as confirm

264 Diaphragmatic rupture was diagnosed in 13 patients.

265 ability with ruptured arterial aneurysms and diaphragmatic rupture.

266 rmatted images showed herniation through the diaphragmatic rupture.

267 Most of diaphragmatic ruptures were left-sided (10) while only 2

268 nd 18PSV promoted a significant decrement in diaphragmatic specific force production, but to a lesser

269 8%), loss of left ventricular capture (10%), diaphragmatic stimulation (2%), loss of right ventricula

270 Diaphragmatic stimulation generated sufficient tidal vol

271 Diaphragmatic stimulation via regular electrodes is feas

272 Diaphragmatic strength was also measured in six asthmati

273 Access to the diaphragmatic surface of the heart with ablation cathete

274 Three of these showed diaphragmatic thickening on postablation computed tomogr

275 postablation CT images showed focal nodular diaphragmatic thickening.

276 fects, and increased cell proliferation with diaphragmatic tissue hyperplasia.

277 are clearly needed for true regeneration of diaphragmatic tissue.

278 are abolished following either bilateral sub-diaphragmatic total truncal vagotomy or brainstem-hypoth

279 Diaphragmatic weakness and acute respiratory failure are

280 ntly increased above their basal levels, and diaphragmatic weakness and further increases in caspase-

281 aling role in mechanical ventilation-induced diaphragmatic weakness and that oxidative stress is an u

282 aling role in mechanical ventilation-induced diaphragmatic weakness and that oxidative stress is requ

283 prolonged mechanical ventilation results in diaphragmatic weakness attributable to fiber atrophy and

284 al muscle fibers is a key pathway leading to diaphragmatic weakness during acute endotoxemia, most li

285 Twitch pressure revealed considerable diaphragmatic weakness in many weaning failure patients.

286 In peripheral lesions, diaphragmatic weakness is a main element, but in many ne

287 sponsible for mechanical ventilation-induced diaphragmatic weakness is important.

288 ppaB plays in mechanical ventilation-induced diaphragmatic weakness is unknown.

289 l ventilation is associated with significant diaphragmatic weakness resulting from both myofiber atro

290 required for mechanical ventilation-induced diaphragmatic weakness to occur.

291 essential for mechanical ventilation-induced diaphragmatic weakness to occur.

292 lished that oxidative stress is required for diaphragmatic weakness to occur.

293 sponsible for mechanical ventilation-induced diaphragmatic weakness will provide the knowledge requir

294 unidentified type of infantile myopathy with diaphragmatic weakness, areflexia, respiratory distress

295 Diaphragmatic weakness, due to both atrophy and contract

296 vent or delay mechanical ventilation-induced diaphragmatic weakness.

297 ion to impede mechanical ventilation-induced diaphragmatic weakness.

298 iaphragm from mechanical ventilation-induced diaphragmatic weakness.

299 ough many weaning failure patients displayed diaphragmatic weakness.

300 nical ventilation and may be associated with diaphragmatic weakness.