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1 , atrial standstill, conduction disease, and sinus node dysfunction.
2 r (DDDR) versus ventricular (VVIR) pacing in sinus node dysfunction.
3 of dual-chamber versus ventricular pacing in sinus node dysfunction.
4 ich reduced Na+ channel function might cause sinus node dysfunction.
5 med SAN at birth, the mutant mice manifested sinus node dysfunction.
6 vent diseases such as atrial fibrillation or sinus node dysfunction.
7 closely resemble those observed in clinical sinus node dysfunction.
8 d risk of death during pacemaker therapy for sinus node dysfunction.
9 with subsequent stroke in patients paced for sinus node dysfunction.
10 and exhibited ventricular preexcitation and sinus node dysfunction.
11 nts (92%) to determine the late incidence of sinus node dysfunction.
12 4 years after the Fontan operation, 44% had sinus node dysfunction.
13 high-grade atrioventricular block and 1 for sinus node dysfunction.
14 principally in the subgroup of patients with sinus-node dysfunction.
15 odds ratio [OR], 1.90 [95% CI, 1.36-2.67]), sinus node dysfunction (1 point; OR, 1.84 [95% CI, 1.04-
17 iminished P-wave amplitude characteristic of sinus node dysfunction, an AF risk factor in human patie
21 Respective subdomain sizes and severity of sinus node dysfunction and atrial arrhythmia susceptibil
22 c variation-driven ectopic PITX2 expression, sinus node dysfunction and atrial arrhythmogenesis, illu
23 or gene (PITX2), identified in patients with sinus node dysfunction and atrial fibrillation and model
25 cribes an arrhythmia phenotype attributed to sinus node dysfunction and diagnosed by electrocardiogra
29 rmal SAN function and the pathophysiology of sinus node dysfunction and suggest new potential targets
30 more likely to occur in patients with early sinus node dysfunction and those with longer follow-up.
31 g the 300 patients enrolled, 190 (63.3%) had sinus-node dysfunction and 100 (33.3%) had atrioventricu
32 -venetoclax (cardiac failure, pneumonia, and sinus node dysfunction) and in one patient receiving chl
33 econd-degree atrioventricular blocks, 4 with sinus node dysfunction, and 5 sudden cardiac deaths.
35 gous for the RE deletion showed bradycardia, sinus node dysfunction, and selective loss of Hcn4 expre
38 cardiac conduction disorder associated with sinus node dysfunction, arrhythmia, and right and occasi
39 conduction, and human SCN5A mutations cause sinus node dysfunction, atrial fibrillation, conductiona
41 ies with a phenotypic spectrum consisting of sinus node dysfunction, AV conduction defects, and hyper
42 hamber pacing were observed in patients with sinus-node dysfunction, but not in those with atrioventr
44 ant and persistent atrioventricular block or sinus node dysfunction can occur and indicate a need for
45 nd at 6 months, decreased R wave amplitudes, sinus node dysfunction, cardiac hypertrophy, interstitia
46 r groups, affected individuals mainly showed sinus node dysfunction, conduction defects, and atrial a
47 cing (DDDR) and ventricular pacing (VVIR) in sinus node dysfunction, demonstrated no difference in de
50 iciency in mice may cause the stress-induced sinus node dysfunction found in many aged individuals an
52 I (hazard ratio, 4.0; P=0.04), and previous sinus node dysfunction (hazard ratio, 8.0; 95% confidenc
55 stroke in a population of patients paced for sinus node dysfunction in a large prospective clinical t
56 CPVT, such as the pathophysiological role of sinus node dysfunction in CPVT, and whether the arrhythm
58 o determine the early and late incidences of sinus node dysfunction in patients systematically and un
59 node function between the 2 stages, 23% had sinus node dysfunction in the early postoperative period
60 r its blood supply is a significant cause of sinus node dysfunction in the orthotopic heart transplan
62 patients, which typically worsens with time, sinus node dysfunction in the transplanted heart usually
65 nus node function between the 2 stages, late sinus node dysfunction is common and more likely to occu
68 tained atrial tachyarrhythmia, implying that sinus node dysfunction is unlikely to be the dominant me
69 ficant clinical manifestation of progressive sinus node dysfunction, is the most frequent indication
70 ity, spontaneous type I ECG, and presence of sinus node dysfunction might be considered as risk facto
74 nical trials in patients with pacemakers for sinus node dysfunction or atrioventricular block (AVB) a
77 ulmonary connection may increase the risk of sinus node dysfunction, previous studies have not report
79 of atrial fibrillation and in patients with sinus node dysfunction, reduces heart failure symptoms w
82 ration family (n=25) with autosomal dominant sinus node dysfunction (SND) and atrioventricular block
83 ut genetic overlap has not been reported for sinus node dysfunction (SND) and noncompaction cardiomyo
85 ildren experienced more frequent episodes of sinus node dysfunction (SND) compared with older subject
89 nt burden testing in 460,000 individuals for sinus node dysfunction (SND), distal conduction disease
92 we studied a family with DCM associated with sinus node dysfunction, supraventricular tachyarrhythmia
93 cardiac arrhythmia syndrome associated with sinus node dysfunction that is distinct from long QT syn
94 ing are alternative treatment approaches for sinus-node dysfunction that causes clinically significan
96 domly assigned a total of 2010 patients with sinus-node dysfunction to dual-chamber pacing (1014 pati
97 tment of pacemaker syndrome in patients with sinus node dysfunction treated with ventricular-based (V
98 ain containing 1 (Popdc1) or Popdc2 leads to sinus node dysfunction under stressed conditions in aged
99 , whereas observed survival of patients with sinus node dysfunction was not significantly different f
103 stro-esophageal reflux, retinal disease, and sinus-node dysfunction, whereas related heterozygotes ha
104 art failure hospitalization in patients with sinus node dysfunction who require pacemaker therapy is