ライフサイエンスコーパス: interventricular

1 ricular interface provided the substrate for interventricular activation delays and ultimately local

2 nical dyssynchrony at left atrioventricular, interventricular, and left intraventricular levels.

3 in non-chamber myocardium (outflow tract and interventricular canal) and has been shown to block cham

4 amural ventricular septal defects (VSDs) are interventricular communications through right ventricula

5 ranch pulmonary artery stenosis and residual interventricular communications.

6 r study, 48 patients with either nonspecific interventricular conduction delay (n=29) or left bundle

7 with left bundle branch block, patients with interventricular conduction delay experienced less QRS r

8 tricular pacing in a subset of patients with interventricular conduction delay.

9 During BiV, interventricular contractile synchrony improved overall

10 system was easily delivered to the anterior interventricular coronary vein.

11 ents of heart rate, and atrioventricular and interventricular delay.

12 clinical outcomes associated with different interventricular delays are verified through electrophys

13 re (HF) model, we tested the hypothesis that interventricular differences in microRNAs (miRs) express

14 cal therapy of heart failure, perhaps due to interventricular differences in their molecular pathophy

15 Mechanical interventricular dyssynchrony (MIVD) was determined as t

16 The VAQRS reflects electric interventricular dyssynchrony and accurately predicts op

17 The degree of interventricular dyssynchrony present in normal sinus rh

18 The degree of interventricular dyssynchrony present in sinus rhythm co

19 Mechanical interventricular dyssynchrony was determined as the time

20 the vectorcardiogram (VCG) reflects electric interventricular dyssynchrony, and that the QRS vector a

21 c resynchronization therapy in patients with interventricular dyssynchrony, transcatheter mitral valv

22 n the largest decrease in TAT and mechanical interventricular dyssynchrony, whereas LV EDV hardly cha

23 duction delay is associated with significant interventricular dyssynchrony.

24 ction of the heart with, theoretically, less interventricular dyssynchrony.

25 ge points, suggesting a mechanism of adverse interventricular interaction.

26 block hearts, CRTopt exclusively depended on interventricular-interval and not on AV-interval.

27 delay >/=130 milliseconds, or pulsed Doppler interventricular mechanical delay >/=40 milliseconds.

28 ; p < 0.0001 and p = 0.0020), or having less interventricular mechanical delay (chi-square test: 29.8

29 peckle tracking radial strain (P=0.003), and interventricular mechanical delay (P=0.019).

30 erapy, cardiac resynchronization reduced the interventricular mechanical delay, the end-systolic volu

31 (septal systolic rebound stretch [SRSsept], interventricular mechanical dyssynchrony [IVMD], septal-

32 t, in end-stage heart failure, suggesting an interventricular mechanical dyssynchrony.

33 the non-GD group, there was mild increase in interventricular millimeter thickness (0.04; 95% CI, 0.0

34 ive fashion to promote right ventricular and interventricular myocardial expansion.

35 of SHF precursors into right ventricular and interventricular myocardium.

36 those with interatrial (pretricuspid) versus interventricular or great arterial (posttricuspid) commu

37 fferentiation, right ventricular growth, and interventricular, outflow tract and aortico-pulmonary se

38 and the incidence of wavebreak in the LV and interventricular regions.

39 Phase measures of interventricular (RV/LV) synchrony were computed in sinu

40 se of human patients, demonstrating enlarged interventricular septa and papillary muscles.

41 uction of cardiomyocyte DNA synthesis in the interventricular septa of infarcted hearts.

42 (APD) in isolated arterially perfused rabbit interventricular septa.

43 n situ pig hearts and Tyrode-perfused rabbit interventricular septa.

44 ght and left ventricles, and interatrial and interventricular septa.

45 Results: All patients in the LBD group had interventricular septal (18)F-DA-derived radioactivity b

46 RV lateral wall longitudinal strain (LS) and interventricular septal (IVS) LS were reduced in the pul

47 P = 2.3 x 10-36), and a 0.18-mm increase in interventricular septal (IVS) thickness (95% CI, 0.14 to

48 pressure responses to the Valsalva maneuver, interventricular septal 6-[18F]fluorodopamine-derived ra

49 in left atrial and ventricular diameters and interventricular septal and posterior wall thicknesses.

50 ncreased left ventricular posterior wall and interventricular septal and relative wall thicknesses (a

51 gists should be aware of imaging findings of interventricular septal aneurysm, because of its rarity

52 gists should be aware of imaging findings of interventricular septal aneurysm, because of its rarity

53 blood) was defined as follows: -179 + log(e) interventricular septal angle x 42.7 + log(10) ventricul

54 n of Smad7 in post-migratory NCC resulted in interventricular septal chamber septation defects, sugge

55 Interventricular septal curvature (C(IVS)) and left vent

56 diac apex and heart chambers, interatrial or interventricular septal defects, pericardium, and site a

57 on), or severe left ventricular hypertrophy (interventricular septal diameter at end-diastole >1.5 cm

58 , 40% [14%] vs 57% [14%], P < .001), whereas interventricular septal diameter was higher (mean [SD],

59 P4, TTR, left ventricular ejection fraction, interventricular septal diameter, mean limb lead QRS vol

60 h shorter sleep duration (</=7 h) had larger interventricular septal diastolic thickness, left ventri

61 LV unloading not only altered interventricular septal geometry but also reduced septal

62 and that atrial volume, pulmonic outflow and interventricular septal motion may provide valuable insi

63 Interventricular septal perforation occurred (as late se

64 LS, the combined average LS of basal and mid interventricular septal segments, correlated strongly wi

65 itation), reduced ejection fraction <50%, or interventricular septal thickness >15 mm.

66 ltiple myeloma, age < or = 70 years, cardiac interventricular septal thickness < or = 15 mm, cardiac

67 In patients with FRDA, interventricular septal thickness (1.17+/-0.26 versus 0.

68 of structure and function, including lesser interventricular septal thickness (18.0+/-3.8 mm versus

69 lobin A1c, women with HDP history had higher interventricular septal thickness (B = 0.08; p = 0.04) a

70 We assessed the influence of interventricular septal thickness (IVSd) on the clinical

71 = 0.224, P = 0.001) in boys, and Hb mass and interventricular septal thickness (R(2)(adj) = 0.317, P

72 (n = 298), phenotype: higher median (Q1-Q3) interventricular septal thickness [18 (16-21) vs. 16 (13

73 Simvastatin reduced LV mass by 37%, interventricular septal thickness by 21%, and posterior

74 and high hs-cTnT was associated with higher interventricular septal thickness in diastole, relative

75 Baseline mean LV mass and interventricular septal thickness in nontransgenic, plac

76 Additionally, there was a reduction in interventricular septal thickness in the intervention an

77 showed that if a low voltage was present and interventricular septal thickness is >1.98 cm, the diagn

78 analysis, postoperative sepsis and increased interventricular septal thickness predicted risk (P<0.00

79 Interventricular septal thickness was significantly redu

80 disease, postoperative sepsis, and increased interventricular septal thickness were markers of advers

81 of LV mass revealed that posterior wall and interventricular septal thickness, but not LV chamber si

82 ssessed with linear regression, adjusted for interventricular septal thickness, family history of sud

83 ter, echocardiographic left atrial area, and interventricular septal thickness.

84 rm was applied to DNA extracted from cardiac interventricular septal tissue of 30 male HF patients en

85 peripheral nerve involvement (17%), cardiac interventricular septal wall thickness (12 mm), serum cr

86 Echocardiography demonstrated increased interventricular septal wall thickness (interventricular

87 dial hypertrophy in FA-CM, the end-diastolic interventricular septal wall thickness (IVSTd) was found

88 r, rs1571099 in PPAPDC1A (P=2.57x10(-8)) for interventricular septal wall thickness, and rs9530176 in

89 netic loci related to left ventricular mass, interventricular septal wall thickness, left ventricular

90 difference +/- SEM: -0.9+/-0.4 mm, P=0.017), interventricular septal wall thickness, posterior wall t

91 septation of the outflow tract of the heart, interventricular septation, and conal alignment.

92 d for structural heart disease involving the interventricular septum (IVS) including hypertrophic car

93 Little is known about the formation of the interventricular septum (IVS), a central event during ca

94 Flash-frozen left ventricular (LV), interventricular septum (IVS), and left atrium (LA) tiss

95 the lateral wall occurred compared with the interventricular septum (IVS; P = .001); at 21 to 28 day

96 w-voltage areas, most commonly involving the interventricular septum (n=16); late potentials were rec

97 wall 973 +/- 42 vs 923 +/- 12 ms; P < 0.005; interventricular septum 1003 +/- 31 vs 974 +/- 21 ms, P

98 es were incomplete formation of the muscular interventricular septum and an abnormal and novel positi

99 asia of the right ventricular myocardium and interventricular septum and display profound ventricular

100 creased from 10 to 14 mm (p < 0.001) for the interventricular septum and from 10 to 13 mm for the pos

101 1 in cardiomyocytes reduces the thickness of interventricular septum and interstitial fibrosis and in

102 The magnitude of CV-IB was analyzed at the interventricular septum and left ventricular (LV) poster

103 bipolar PFA for midmyocardial targets in the interventricular septum and left ventricular free wall.

104 hic finding of an increased thickness of the interventricular septum and posterior wall.

105 7), P=0.005), due to a reduction in both the interventricular septum and the left ventricular posteri

106 patients had scarring at the junction of the interventricular septum and the right ventricular (RV) f

107 activities in the muscular component of the interventricular septum at embryonic day 12.5, when fusi

108 t became quite strong along the crest of the interventricular septum by E16.5.

109 Post-infarction VT involving the interventricular septum can involve the endocardial musc

110 Notably, OWs exhibited the largest diastolic interventricular septum diameter (IVSd), at 1.33 +/- 0.2

111 .50; 95% confidence interval, 1.22 to 5.11), interventricular septum diameter (odds ratio, 1.18; 95%

112 f the larger CoreValve prosthesis, increased interventricular septum diameter and prolonged QRS durat

113 ising from the mid and apical portion of the interventricular septum dissecting into the basal part.

114 ions, resulting in the failure of membranous interventricular septum formation.

115 ased interventricular septal wall thickness (interventricular septum in diastole Z value, +0.45 +/- 0

116 nd abnormal vasculature in the myocardium of interventricular septum in E15.5 Cited2(-/-) hearts were

117 revalence of the re-entry circuit within the interventricular septum in post-infarction patients refe

118 s and normalized the movement of the cardiac interventricular septum in VhlR200Wmice.

119 Aneurysm of the muscular interventricular septum is a rare entity as compared to

120 ing lead by transvenous approach through the interventricular septum is feasible in patients.

121 g from within a perforator branch within the interventricular septum is helpful in identifying the si

122 The hypoxia of the outflow tract and interventricular septum peaked at E13.5 and dissipated b

123 S developed more regularly in vessels of the interventricular septum than in the right or left ventri

124 (LAVI; 35 vs 28 mL/m2; P = .01) and average interventricular septum thickness (8.5 vs 7.0 mm; P = .0

125 analysis a significant direct association of interventricular septum thickness (odds ratio for 1 SD i

126 disease was associated with greater baseline interventricular septum thickness and LAVI.

127 a higher portion of moderate AS, but higher interventricular septum thickness and more severely impa

128 h time point), RD significantly reduced mean interventricular septum thickness from 14.1 +/- 1.9 mm t

129 ficantly positive correlation with diastolic interventricular septum thickness in those athletes.

130 he correlation between J-point elevation and interventricular septum thickness suggests a possible me

131 tricular volume index, parasternal long axis interventricular septum thickness, and mean left ventric

132 For interventricular septum thickness, precision SD was 1.8

133 between linoleic acid (18:2n6) and diastolic interventricular septum thickness.

134 hways from the great cardiac vein across the interventricular septum to create cerclage.

135 eshaped guiding catheter, driven through the interventricular septum to the LVS.

136 93 patients (8%), an intramural focus in the interventricular septum was identified.

137 , the myocardium was remarkably thinner, and interventricular septum was incompletely formed.

138 mapping and local EGM assessment of the left interventricular septum was performed during RV basal se

139 All VTs mapped to the interventricular septum were acutely successfully ablate

140 TDE color M-mode images of the interventricular septum were recorded from the apical 4-

141 Cardiac hypertrophy (interventricular septum, 12+/-4 [7-23] mm; left ventricu

142 transgene expression in the right ventricle, interventricular septum, and atrial ventricular canal; U

143 pment of the trabeculae, compact myocardium, interventricular septum, and endocardial cushion.

144 Mean z scores for LV, LA, RV, interventricular septum, and LV posterior wall diameters

145 mean z scores for LV, left atrium (LA), RV, interventricular septum, and LV posterior wall diameters

146 V mass index, left atrial systolic diameter, interventricular septum, and LV posterior wall thickness

147 on right ventricular size, curvature of the interventricular septum, and maximal tricuspid regurgita

148 rise to the majority of the right ventricle, interventricular septum, and outflow tract in mammals an

149 ng of ventricular myocardium, especially the interventricular septum, and reduction of both ventricul

150 lular volume at the RV insertion points, the interventricular septum, and the left ventricular latera

151 ntricular and semilunar valves, the muscular interventricular septum, and the ventricular myocardium.

152 cardiac neural crest in the formation of the interventricular septum, and therefore could play a role

153 bryos and that defects of the outflow tract, interventricular septum, cardiac vasculature, and hyposp

154 ncomitant with increases in the thickness of interventricular septum, interstitial fibrosis, and phos

155 0.2 mmol/kg gadopentetate dimeglumine in the interventricular septum, left ventricular (LV) free wall

156 rdiac phenotype, including thickening of the interventricular septum, left ventricular volume reducti

157 eft ventricular (LV) endocardial side of the interventricular septum, referred to as LV septal (LVs)

158 ance between the anterior mitral leaflet and interventricular septum, septal base function and the an

159 etected in the myocardium, especially in the interventricular septum, ventricular wall, and outflow t

160 1 expression was also high in the developing interventricular septum, where expression of the BMP-1 g

161 ythrocytes in the subepicardium and muscular interventricular septum.

162 pressed in the left ventricular apex and the interventricular septum.

163 profiling of the four heart chambers and the interventricular septum.

164 attern of Ito expression was observed in the interventricular septum.

165 the heart, the left ventricle free wall and interventricular septum.

166 heart and is essential for formation of the interventricular septum.

167 An additional transducer was placed in the interventricular septum.

168 most severe hypertrophy involving the basal interventricular septum.

169 he 26 mappable VTs (46%) originated from the interventricular septum.

170 most cases, it is primarily confined to the interventricular septum.

171 es were used to mechanically enter the basal interventricular septum.

172 1.1 mL, lesions extended anteriorly into the interventricular septum.

173 t, LMNA substrate was mainly observed in the interventricular septum.

174 icular aspect of the muscular and membranous interventricular septum.

175 nts using a transvenous approach through the interventricular septum.

176 ference toward the lateral wall, but not the interventricular septum.

177 lation, sharing a common pericardial sac and interventricular septum.

178 tions on the right ventricular aspect of the interventricular septum.

179 hom the critical part of the VT involved the interventricular septum.

180 , a critical component was identified in the interventricular septum.

181 those obtained in the left ventricle and the interventricular septum.

182 improvement in clinical status and decreased interventricular shunting.

183 comes after placement of intraventricular or interventricular stents for this indication.

184 f intraventricular contraction disorder, and interventricular synchrony (IVS), a measure of synchrono

185 Improvements in interventricular synchrony during biventricular pacing c

186 One of the surrogate markers of interventricular synchrony is QRS duration.

187 The analysis indicated high interventricular synchrony of the ion channels expressio

188 us 1.5 +/- 0.6 1/s; P = 0.03), and intra and interventricular synchrony were lower in the HT group.

189 synchrony of the left and right ventricles (interventricular synchrony) and of the LV myocardial seg

190 Injected veins included interventricular vein (6), diagonal (5), septal (12), la

191 aorta (AO), coronary sinus (CS) and anterior interventricular vein (AIV), there was a significant ste

192 ethanol into a septal branch of the anterior interventricular vein in 5 patients with left ventricula

193 g coronary artery into the parallel anterior interventricular vein.