ライフサイエンスコーパス: cardiac electrophysiology

1 ial duration, recapitulating key features of cardiac electrophysiology.

2 We sought to determine the role of RNF207 in cardiac electrophysiology.

3 remain one of the most intriguing enigmas of cardiac electrophysiology.

4 ple important advances in the field clinical cardiac electrophysiology.

5 oscience, but also in other areas, including cardiac electrophysiology.

6 nding of the regulation of hERG channels and cardiac electrophysiology.

7 sting an as-yet unknown role for Na(V)1.8 in cardiac electrophysiology.

8 used to address current clinical problems in cardiac electrophysiology.

9 vancement in elucidating basic mechanisms in cardiac electrophysiology.

10 is a rapidly growing aspect of computational cardiac electrophysiology.

11 eading to As(2)O(3)-induced abnormalities of cardiac electrophysiology.

12 CE, a fully automated system for all-optical cardiac electrophysiology.

13 ia on defibrillation energy requirements and cardiac electrophysiology.

14 of these advances in the realm of pediatric cardiac electrophysiology.

15 channel antagonists have diverse effects on cardiac electrophysiology.

16 heel experiment, a fundamental experiment in cardiac electrophysiology.

17 Wild-type animals had completely normal cardiac electrophysiology.

18 effects of a human connexin channelopathy on cardiac electrophysiology and arrhythmogenesis, we gener

19 plays an important role in the modulation of cardiac electrophysiology and arrhythmogenesis.

20 were anesthetized and instrumented to assess cardiac electrophysiology and blood pressure.

21 has been driven by two initial applications: cardiac electrophysiology and cancer development.

22 l staff working in interventional cardiology/cardiac electrophysiology and correlate them with the le

23 nd the applications of whole-heart models in cardiac electrophysiology and electromechanics research

24 eterogeneity has a profound effect on normal cardiac electrophysiology and genesis of cardiac arrhyth

25 teraction screens provides new insights into cardiac electrophysiology and identifies new candidate g

26 en should yield novel tools for the study of cardiac electrophysiology and may lead to novel therapeu

27 tand issues such as adrenergic regulation of cardiac electrophysiology and mechanisms of susceptibili

28 we discuss mathematical modelling studies in cardiac electrophysiology and neuroscience that have enh

29 exchange of state-of-the-art information in cardiac electrophysiology and pacing.

30 rmone levels are required to maintain normal cardiac electrophysiology and to prevent cardiac arrhyth

31 EETs regulate cardiac electrophysiology and vascular tone by KATP chan

32 roaches, their contributions to the field of cardiac electrophysiology, and future directions of vari

33 Mathematical models of cardiac electrophysiology are instrumental in determinin

34 ese strategies may be applicable not just in cardiac electrophysiology, but in a wide range of discip

35 unctional impact of DeltaPsim instability on cardiac electrophysiology, Ca(2+) handling, and even cel

36 Hypothermia profoundly affected cardiac electrophysiology, decreasing ventricular fibril

37 implanted with telemeters to monitor HR and cardiac electrophysiology [electrocardiography (ECG)] we

38 produce a substrate for AF, we have studied cardiac electrophysiology (EP) and inducibility of atria

39 iew, we focus on acute mechanical effects on cardiac electrophysiology, explore molecular candidates

40 We then examined the changes in cardiac electrophysiology following injection of adenovi

41 Drugs with overt effects on cardiac electrophysiology have failed in the clinic owin

42 ground genotypes, and lifestyles, we studied cardiac electrophysiology, hypertrophy, and histopatholo

43 on the integrative role of K(+) channels in cardiac electrophysiology, i.e. how K(+) currents shape

44 lowering financial thresholds, this powerful cardiac electrophysiology imaging modality may gain wide

45 that dietary fish intake is associated with cardiac electrophysiology in humans, including heart rat

46 l consumption directly or indirectly affects cardiac electrophysiology in humans.

47 (f/f)/alphaMyHC-Cre) mice and analyzed their cardiac electrophysiology in vivo and in vitro.

48 limited by their degree of homology to human cardiac electrophysiology, including ion channel express

49 ll one of the most challenging procedures in cardiac electrophysiology, limited, in part, by unmappab

50 diographic imaging (a method for noninvasive cardiac electrophysiology mapping) and advanced late gad

51 A new mouse cardiac electrophysiology method was used to study mice

52 rdic model of arrhythmogenesis, an aspect of cardiac electrophysiology not previously recapitulated i

53 ate dimeglumine has no detrimental effect on cardiac electrophysiology or other safety parameters in

54 hysiology have been an integral component of cardiac electrophysiology since its inception, and are c

55 A large number of cardiac electrophysiology studies have been enabled and

56 t describes a novel in vivo mouse epicardial cardiac electrophysiology study based on clinical protoc

57 O(3) exposure causes several alterations in cardiac electrophysiology that are likely mediated by mo

58 bout fundamental mechanisms underlying human cardiac electrophysiology that has come about because of

59 , leukocyte surface markers, hemostasis, and cardiac electrophysiology were conducted to 24 hours pos

60 Scaling of cardiac electrophysiology with body mass requires large