ライフサイエンスコーパス: superior vena cava

1 atrial septal aneurysm, and persistent left superior vena cava).

2 descending aorta, main pulmonary artery, and superior vena cava.

3 reases in venous return from the arms to the superior vena cava.

4 ent required reoperation for stenosis of the superior vena cava.

5 r with CS ostial atresia and persistent left superior vena cava.

6 he upper part of the right lung entering the superior vena cava.

7 he septum, the left atrial appendage and the superior vena cava.

8 electrodes in the right ventricular apex and superior vena cava.

9 ion, and the opposite trend was shown in the superior vena cava.

10 limited cluster between the right atrium and superior vena cava.

11 defect, Robin sequence, and persistent left superior vena cava.

12 dialysis catheter because of stenosis in the superior vena cava.

13 e sulcus terminalis, RA free wall, and right superior vena cava.

14 ter placed inside the coronary sinus via the superior vena cava.

15 lse impression of a correct placement in the superior vena cava.

16 .15 L/min +/- 0.10) and descending aorta and superior vena cava (0.14 L/min +/- 0.12).

17 entricle (3), right atrium (2), right atrium/superior vena cava (1), and right atrium/inferior vena c

18 (pulmonary artery=26, pulmonary vein=21, and superior vena cava=12).

19 observed (innominate vein 13.9 +/- 4.5 J vs. superior vena cava 13.6 +/- 8.3 J, p = NS).

20 re also prominent, including persistent left superior vena cava (13%) and partial anomalous pulmonary

21 (169, 353); ascending aorta, 191 (121, 261); superior vena cava, 137 (77, 197); ductus arteriosus, 18

22 tus arteriosus (16/47, 34%), persistent left superior vena cava (14/47, 30%), and abnormal branching

23 ed heart (innominate vein 13.0 +/- 6.5 J vs. superior vena cava 17.9 +/- 5.1 J, p < 0.01).

24 , 56 (44, 68); ascending aorta, 41 (29, 53); superior vena cava, 29 (15, 43); ductus arteriosus, 41 (

25 curred most often in the innominate vein and superior vena cava (59.3%).

26 on associated abnormality followed by double superior vena cava (9.78%).

27 hat the Doppler flow velocity pattern in the superior vena cava (affected by intrathoracic pressure)

28 n during right phrenic nerve pacing from the superior vena cava, all patients underwent diaphragmatic

29 described fat pad located between the medial superior vena cava and aortic root (SVC-Ao fat pad), sup

30 For the superior vena cava and brachiocephalic veins, the recons

31 technique into the left subclavian vein and superior vena cava and evaluated for up to 90 minutes.

32 nly, closed-chest, large-vessel anastomosis (superior vena cava and pulmonary artery [PA] or bidirect

33 f an intravascular balloon positioned at the superior vena cava and right atrial junction (SVC-RAJ) r

34 However, when superior vena cava and right atrial oxyhemoglobin satura

35 o have the tip placed at the junction of the superior vena cava and right atrium.

36 stents to permit additional vein drainage to superior vena cava and tackle embolizations.

37 formed with a transformation that linked the superior vena cava and the coronary sinus from the CT mo

38 Similarly, the superior vena cava and the coronary sinus were also reco

39 asma was collected from the hepatic vein and superior vena cava and underwent protein profiling for a

40 laser progression in the innominate vein and superior vena cava, and more frequently for dual-coil an

41 rachiocephalic vein or its junction with the superior vena cava, and over half of them drained below

42 diac valves, septal defects, persistent left superior vena cava, and patent ductus arteriosus, were p

43 n 3 zones (vein entry to superior vena cava, superior vena cava, and right atrium to lead tip).

44 n electrodes were placed in the RV apex, the superior vena cava, and the great cardiac vein (CV).

45 chronic study phase, successful isolation of superior vena cava at a dose not predicted to cause phre

46 stance from these venous access sites to the superior vena cava-atrial junction (CAJ), and evaluated

47 e mean distance from all access sites to the superior vena cava-atrial junction was 18.0 cm.

48 s with Fontan circulation, 87% +/- 13 of the superior vena cava blood flowed to the right PA (range,

49 ferences in retrograde flow, greatest in the superior vena cava.(C) RSNA, 2019Online supplemental mat

50 Superior vena cava catheterization interventions between

51 ack/tortuosity measures, pulse generator and superior vena cava coil location, and angle of lead exit

52 0.28-0.55; all P < .01), particularly in the superior vena cava.ConclusionFour-dimensional flow MRI h

53 ndages, the junction of the right atrium and superior vena cava, crista terminalis, tricuspid valve i

54 Transmural pressure of the superior vena cava decreased during inspiration, whereas

55 prospective study, respiratory variations of superior vena cava diameter (SVC) measured using transes

56 An active can coupled to the superior vena cava electrode served as the return for th

57 shocks were delivered from right ventricular-superior vena cava electrodes after the last S1 stimulus

58 Superior vena cava filters should be avoided.

59 Superior vena cava flow passed almost exclusively into t

60 ed to determine whether Doppler recording of superior vena cava flow velocities can differentiate chr

61 Pulsed-wave Doppler recording of mitral and superior vena cava flow velocities in 20 patients with c

62 nts) or atrial fibrillation triggered from a superior vena cava focus (1 patient) adjacent to the rig

63 output, pulmonary arteries, pulmonary veins, superior vena cava (Glenn shunt), and inferior vena cava

64 luid loading (index of collapsibility of the superior vena cava>/=36%), inotropic support (left ventr

65 d in the right ventricular (RV) apex and the superior vena cava in 12 pigs.

66 ensional geometry and flow rates through the superior vena cava, inferior vena cava, left pulmonary a

67 Persistent left superior vena cava is a rare but important congenital va

68 Percutaneous filter placement in the superior vena cava is a safe and effective method for pr

69 tral venous oxygen saturation (ScvO2) in the superior vena cava is predominantly determined by cardia

70 Adjunctive ablation included superior vena cava isolation in 6 patients, cavotricuspi

71 FA system when simulating pulmonary vein and superior vena cava isolation in a porcine beating heart

72 Superior vena cava isolation was performed in 30 swine u

73 Acute pulmonary vein and superior vena cava isolation were achieved in 10 out of

74 Pulsed-field ablation for pulmonary vein and superior vena cava isolation with the novel PFA system w

75 atrium to conduct right pulmonary veins and superior vena cava isolations, in addition to creating s

76 h the proximal electrode at the right atrial-superior vena cava junction (superior vena cava position

77 subclavian vein (29.0+/-2.5 J, P=.0001) or a superior vena cava lead (30.7+/-3.7 J, P=.0001).

78 anoeuvre, blocking venous return through the superior vena cava, may allow brief retrograde transmiss

79 Transient superior vena cava occlusion has been reported following

80 he first-in-human experience of intermittent superior vena cava occlusion using the preCARDIA system

81 nitroprusside nor blood withdrawal from the superior vena cava or carotid artery elicited USV from p

82 fidence limits would lead to large errors if superior vena cava or right atrial oxyhemoglobin saturat

83 lmonic stenosis, persistence of a left-sided superior vena cava or transposition of the great arterie

84 hout relevant index of collapsibility of the superior vena cava), or increased vasopressor support (r

85 is, eustachian ridge, crista terminalis, and superior vena cava); or arm 3, standard approach + ablat

86 lateral atriotomy to the inferior vena cava, superior vena cava, or tricuspid annulus or by ablating

87 of treatment strategies including continuous superior vena cava oximetry (SvO2), phenoxybenzamine (PO

88 sone, fluid resuscitation and fluid removal, superior vena cava oxygen saturation, goal-directed, coa

89 3.01-486; P=0.005), whereas persistent left superior vena cava (P=0.85), ventricular septal defect (

90 We report on a rare case of persistent left superior vena cava (PLSVC) with absent right superior ve

91 icantly lower than with the electrode in the superior vena cava position (13.4 +/- 5.7 J vs. 16.3 +/-

92 n was lower or equal to that achieved in the superior vena cava position in 75% of patients.

93 he right atrial-superior vena cava junction (superior vena cava position) and once with the proximal

94 In one subject, a congenital left-sided superior vena cava precluded right-sided capture.

95 Superior vena cava-related symptoms occur in only 50% of

96 TH-IR nerve bundles entered the atria at the superior vena cava, right atrium (RA), left precaval vei

97 Oxyhemoglobin saturation in the superior vena cava, right atrium, and pulmonary artery (

98 sue swelling with resultant narrowing of the superior vena cava-right atrial (SVC-RA) junction.

99 Because vascular injury in the superior vena cava-right atrium during transvenous lead

100 t may be useful in characterizing ILA in the superior vena cava-right atrium region.

101 Aortic or superior vena cava rim deficiencies were more common in

102 superior vena cava (PLSVC) with absent right superior vena cava (RSVC).

103 A young woman with a benign superior vena cava stenosis due to a tunneled internal j

104 al breakthrough at the junction of the right superior vena cava, sulcus terminalis, and RA free wall,

105 dicated CT readers in 3 zones (vein entry to superior vena cava, superior vena cava, and right atrium

106 by deficiency of the common wall between the superior vena cava (SVC) and the right upper pulmonary v

107 PTH levels were measured in the superior vena cava (SVC) before and at varying times fro

108 oid), and (3) a presaturation pulse labeling superior vena cava (SVC) blood.

109 ary vein (PV) origin, those arising from the superior vena cava (SVC) can precipitate atrial fibrilla

110 Superior vena cava (SVC) flow was used as a proxy for ce

111 Superior vena cava (SVC) has been considered a specific

112 The connecting site was the superior vena cava (SVC) in 39 veins (59.1%), right atri

113 Biatrial drainage of the right superior vena cava (SVC) is a rare form of interatrial s

114 PURPOSE OF REVIEW: Superior vena cava (SVC) is one of the most important no

115 nd feasibility of durable pulmonary vein and superior vena cava (SVC) isolation between radiofrequenc

116 as to investigate the causes and symptoms of superior vena cava (SVC) obstruction or occlusion and re

117 Superior vena cava (SVC) tears are one of the most letha

118 volving transection and reanastomosis of the superior vena cava (SVC) to the right atrial appendage a

119 ion of central veins of the thorax including superior vena cava (SVC), brachiocephalic (BCV), subclav

120 The superior vena cava (SVC), inferior vena cava (IVC), and

121 ices result from vascular obstruction of the superior vena cava (SVC).

122 central if they resided anywhere within the superior vena cava (SVC).

123 The catheter was positioned either in the superior vena cava (SVC, n = 6), coronary sinus (CS, n =

124 e of PE due to upper extremity thrombosis or superior vena cava syndrome (median follow-up, 15 weeks)

125 irway disease, and the other had a transient superior vena cava syndrome after a bidirectional Glenn

126 were followed up clinically for evidence of superior vena cava syndrome and PE.

127 Specifically, superior vena cava syndrome may warrant radiation, chemo

128 Superior vena cava syndrome was more common in the non-c

129 al radiology department with symptoms of the superior vena cava syndrome.

130 gnificantly greater respiratory variation in superior vena cava systolic forward flow velocity in chr

131 Inspiratory superior vena cava systolic forward flow velocity was si

132 isease show a marked increase in inspiratory superior vena cava systolic forward flow velocity, which

133 On advancing the catheter through the superior vena cava, the P-wave amplitude (lead II) incre

134 Fifty patients underwent intermediate superior vena cava to pulmonary artery anastomosis at st

135 right atrial ablation line of block from the superior vena cava to the inferior vena cava.

136 eeded for nonsurgical crossing from a donor (superior vena cava) to a recipient (PA) vessel and endov

137 ction of the subclavian, brachiocephalic, or superior vena cava veins represents an important complic

138 between PVs plus empirical isolation of the superior vena cava was performed in all.

139 rch, aortic coarctation, and persistent left superior vena cava was significantly associated with wom

140 All four pulmonary vein antra and the superior vena cava were isolated using an ICE-guided tec

141 rams in the left atrium, coronary sinus, and superior vena cava were targeted for ablation.

142 All pulmonary veins, including the superior vena cava, were successfully isolated.

143 ent a case of visualization of a clot in the superior vena cava with collateral flow to the liver dur

144 line confirmed the presence of a clot in the superior vena cava with retrograde flow into the azygous

145 trial testing intermittent occlusion of the superior vena cava with the preCARDIA system, a catheter

146 A model of chronic indwelling CVC in the low superior vena cava with thrombus in situ was established