ライフサイエンスコーパス: atrioventricular valve

1 e double outlet right ventricle and a common atrioventricular valve.

2 r valves have generally been better than the atrioventricular valves.

3 the development of myxomatous changes of the atrioventricular valves.

4 direct formation of the semilunar valve and atrioventricular valves.

5 Six hundred eighty-six patients had 2 atrioventricular valves, 286 had a single mitral valve,

6 ), crista terminalis (3 patients), and right atrioventricular valve (5 patients).

7 and superior), and the atrial aspect of the atrioventricular valves also express high levels of Tbx5

8 rings (AVRs) surround the atrial orifices of atrioventricular valves and are hotbed of ectopic activi

9 pattern the aortic arches, outflow tract and atrioventricular valves and cushions.

10 Patients with common atrioventricular valves and those who took daily preoper

11 had a single mitral valve, 130 had a common atrioventricular valve, and 97 had a single tricuspid va

12 nar valves do not form in mutants, while the atrioventricular valves appear unaffected.

13 his question, we used the zebrafish superior atrioventricular valve (AV) as a model.

14 ive small GTPases, RhoA and Rac1, coordinate atrioventricular valve (AV) differentiation and morphoge

15 1 is necessary for proper development of the atrioventricular valve (AV).

16 s applied to derive principal strains at the atrioventricular valve (AVV) and apical short-axis level

17 Previous work has highlighted atrioventricular valve (AVV) index as a reasonable defin

18 how mutations disrupt the interplay between atrioventricular valve (AVV) morphogenesis and function

19 Atrioventricular valve (AVV) regurgitation is increasing

20 monary bypass time, operation prior to 1991, atrioventricular valve (AVV) replacement at the time of

21 a low incidence of semilunar valve defects, atrioventricular valve defects and double outlet right v

22 that Egfr is required for semilunar, but not atrioventricular, valve development.

23 specific aspects of trials in patients with atrioventricular valve disease are reviewed in this arti

24 y and safety for transcatheter treatments of atrioventricular valve disease in patients with heart fa

25 of patients, the dynamic nature of secondary atrioventricular valve disease severity, the role of hea

26 Atrioventricular valve failure (moderate or greater regu

27 This study determined the incidence of atrioventricular valve failure and its clinical impact o

28 The cumulative incidence of atrioventricular valve failure at 25 years of age for pa

29 Atrioventricular valve failure occurs frequently in pati

30 sed by Doppler determination of the systemic atrioventricular valve flow velocity at the conclusion o

31 Loss of gata6 specifically impacts atrioventricular valve formation and recruitment of epic

32 (-/-) double null embryos exhibited abnormal atrioventricular valve formation, a phenotype never seen

33 versely affects transplant-free survival and atrioventricular valve function.

34 ived cells to the individual leaflets of the atrioventricular valves has also important pragmatic con

35 ediating intracellular kinase activation for atrioventricular valve morphogenesis using well defined

36 equirement for FOG-1 in the outlet tract and atrioventricular valves of the heart that depend on expr

37 ice, and thrombi were detected at either the atrioventricular valves or within the atria of 2 of 13 j

38 tion of EPDCs to the various leaflets of the atrioventricular valves provides a new paradigm in valve

39 quent impact on transplant-free survival and atrioventricular valve regurgitation (AVVR) as well as t

40 Throughout the study, atrioventricular valve regurgitation (hazard ratio [HR]:

41 pulmonary artery pressure >15 mm Hg (n=16), atrioventricular valve regurgitation (n=5), and decrease

42 ic dysfunction (P < .01), moderate or severe atrioventricular valve regurgitation (P < .01), higher F

43 en in those patients with moderate or severe atrioventricular valve regurgitation (p = 0.07) and in t

44 ailure late in pregnancy because of systemic atrioventricular valve regurgitation and required valve

45 icular dysfunction, aortic regurgitation and atrioventricular valve regurgitation in another.

46 ventricular dysfunction, moderate or greater atrioventricular valve regurgitation on pre-catheterizat

47 ded complete heart block (n=2) and increased atrioventricular valve regurgitation requiring surgical

48 stenosis and regurgitation; to semilunar and atrioventricular valve regurgitation, and to major risks

49 irculatory failure, ventricular dysfunction, atrioventricular valve regurgitation, arrhythmia, protei

50 rtension, pulmonary regurgitation, pulmonary atrioventricular valve regurgitation, pulmonary and syst

51 own of the ortholog in zebrafish resulted in atrioventricular valve regurgitation.

52 temic (P=0.001), and (4) pulmonary (P=0.045) atrioventricular valve regurgitation.

53 Aortic arch and atrioventricular valve reinterventions were not differen

54 with left ventricular outflow tract surgery, atrioventricular valve replacement, or ventricular L-Loo

55 no procedure; (2) ventricular L-looping; (3) atrioventricular valve replacement; (4) and absence of p

56 regarding the long-term outcomes of systemic atrioventricular valve (SAVV) intervention (morphologic

57 Systemic atrioventricular valve (SAVV) regurgitation (grade > or

58 tion fraction (SVEF) at the time of systemic atrioventricular valve (SAVV) replacement as a predictor

59 At the atrioventricular valve, septal and anterior walls rotate

60 A systemic right atrioventricular valve was present in 139 (63.7%).

61 ular, single tricuspid, single mitral, and 2 atrioventricular valves was 56% (95% confidence interval

62 Using the zebrafish atrioventricular valve, we focus on the valve interstiti

63 E/end diastolic volume) and flow through the atrioventricular valve were computed and compared betwee

64 eliminates expression in the atrium and the atrioventricular valve while expression is retained in t