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1 ntified (mean, 2.3+/-0.9 per patient; 72% in left atrium).
2  requires simultaneous global mapping of the left atrium.
3  electrical and anatomical remodeling of the left atrium.
4  positive curvature being concave toward the left atrium.
5 inhibits the SAN-specific genetic program in left atrium.
6 ing 15 located in right atrium and 10 in the left atrium.
7 m to the interatrial area and finally to the left atrium.
8 s the normal size and phasic function of the left atrium.
9            A 24-F guide is positioned in the left atrium.
10  radiofrequency ablation along the posterior left atrium.
11  mm) at the inferior levels of the posterior left atrium.
12 ery catheter with a clip was placed into the left atrium.
13 n the pulmonary veins, crista terminalis, or left atrium.
14  created in the mitral isthmus and posterior left atrium.
15 e catheter was placed transseptally into the left atrium.
16 cluders while adenosine was infused into the left atrium.
17 perior displacement of the leaflets into the left atrium.
18 y and an increase in PAI-1 expression in the left atrium.
19  a cycle length shorter than in the adjacent left atrium.
20 tentials when stimulation was shifted to the left atrium.
21 n was higher in the right atrium than in the left atrium.
22  significantly higher nerve density than the left atrium.
23 ilms of the chest can be diagnostic of giant left atrium.
24 ERNA, likely because of the exclusion of the left atrium.
25                  Two IARTs originated in the left atrium.
26  a transducer and was then inserted into the left atrium.
27 f the reservoir and conduit functions of the left atrium.
28 m, but increased the conduit function of the left atrium.
29 e pulmonary artery and the pulmonary vein or left atrium.
30  distal coronary sinus (CS) or the posterior left atrium.
31 n the right ventricle, pulmonary artery, and left atrium.
32  closure of a low resistance runoff into the left atrium.
33 4 pulmonary veins near the junction with the left atrium.
34 ection of lithium chloride into the right or left atrium.
35 e of an atheromatous plaque and smoke in the left atrium.
36 rse remodeling in the left ventricle and the left atrium.
37 ol servomechanism to withdraw blood from the left atrium.
38 btained from multiple sites of the right and left atrium.
39 the ruptured head does not prolapse into the left atrium.
40 n the right ventricle, pulmonary artery, and left atrium.
41 ally passed through the foramen ovale to the left atrium.
42 equently passed through the foramen into the left atrium.
43 tured head was not seen to prolapse into the left atrium.
44  the ruptured papillary muscle head into the left atrium.
45 ycardia activation in the previously ablated left atrium.
46 cardial conduction patterns of the right and left atrium.
47 hese, 69% reentries and 71% foci were in the left atrium.
48 was performed, which revealed two lesions in left atrium.
49 eins with limited linear ablation within the left atrium.
50  Dense DE was detected at the left posterior left atrium.
51 inage into the hepatic vein, right atrium or left atrium.
52 terminalis/pectinate muscle, pulmonary veins/left atrium.
53 ient; 7 in the right atrium versus 12 in the left atrium; 15 extrapulmonary).
54 ter effective refractory period (ERP) in the left atrium (251 +/- 25 ms vs. 233 +/- 32 ms, p = 0.04),
55 om 2 centers (age 63 +/- 10 years; 33 women; left atrium 38 +/- 7 mm; left ventricular ejection fract
56 nd the compliance of the pulmonary veins and left atrium; 4) normal respiration and changes in heart
57 ght ventricle (127+/-28 vs 83+/-14 mL/m(2)), left atrium (65+/-16 vs 41+/-9 mL/m(2)), and right atriu
58 the atrial septum via BB (right atrium, 62%; left atrium, 67%).
59 re common in the left atrium (n = 206 cells; left atrium: 76 with TATS, 30 without TATS; right atrium
60  the right atrium (109.2+/-5 ms) than in the left atrium (85.8+/-5.5 ms) at baseline (P=0.005).
61 Stage 3 pacing stimuli enabled consistent RA-left atrium activation until sinus rhythm was restored.
62  Bjork-Shiley mitral valve was placed in the left atrium adjacent to the native valve.
63                   The clip was opened in the left atrium, advanced through the mitral orifice, and re
64 lmonary veins do not connect normally to the left atrium, allowing mixing of pulmonary and systemic b
65                                          The left atrium anatomy (volume, AP diameter), anatomy of th
66 e: 24+/-5%, 38+/-6% [P<0.001, <0.001] in the left atrium and 19+/-9%, 18+/-3% [P<0.001, <0.001] in th
67 was 17.5 +/- 3.9 pmol.mg-1 of protein in the left atrium and 29.2 +/- 6.1 pmol.mg-1 of protein in the
68 0 electric rotors, 47.8% were located in the left atrium and 52.2% in the right atrium.
69  PVs, with additional lines in the posterior left atrium and along the mitral isthmus, was performed
70 erents to 2 microg of ET-1 injected into the left atrium and attenuated the ischaemia-related increas
71 ents to 5 microg of U46619 injected into the left atrium and attenuated the ischaemia-related increas
72 dykinin in the electrically paced guinea pig left atrium and by capsaicin in the spontaneously beatin
73 to the cardio-phrenic space, compressing the left atrium and causing medium lobe atelectasis; bilater
74 t electrogram-based catheter ablation in the left atrium and coronary sinus after pulmonary vein isol
75            Lead V1 and electrograms from the left atrium and coronary sinus were analyzed to determin
76 In atrial fibrillation patients with dilated left atrium and hypertension or failed prior atrial fibr
77 easured in multiple sites in the body of the left atrium and in the appendage by transesophageal puls
78          We examined the reference values of left atrium and left ventricle (LV) structure in a large
79 h additional ablation lines in the posterior left atrium and mitral isthmus, with an 8-mm-tip cathete
80  compliance of the pulmonary vasculature and left atrium and phasic changes in LA pressure.
81 e cultures routinely obtained from the donor left atrium and postpreservation fluid during heart tran
82 ressure and volume, and shortened ERP in the left atrium and PV are potential factors facilitating an
83             Registration of 3D models of the left atrium and PVs with fluoroscopic images of the same
84 hallenging due to the complex anatomy of the left atrium and PVs, uncertain catheter positioning with
85                      The mean LGE burden for left atrium and right atrium was 23.9+/-1.6% and 15.9+/-
86                    Left pSHF moves to dorsal left atrium and superior AVC, whereas right pSHF contrib
87 e atria were paced from the postero-inferior left atrium and the caudal right atrium.
88  functional and structural parameters of the left atrium and the left atrial appendage which have bee
89 have thrombi in other locations, such as the left atrium and the left ventricle.
90              Anatomic structures such as the left atrium and the pulmonary veins (PVs) are not deline
91 even though adjacent structures, such as the left atrium and the right ventricle, alter edge paramete
92 Remarkably, many of the Pnmt(+) cells in the left atrium and ventricle appeared to be working cardiom
93 terial input functions were derived from the left atrium and, in the case of (62)Cu-ETS, corrected fo
94  (rho=0.96 for right atrium and rho=0.92 for left atrium) and the DF gradient between them (rho=0.93)
95 or the right ventricle, 1.8+/-1.0 mm for the left atrium, and 2.3+/-1.1 mm for the left ventricle.
96 mages were manually segmented to isolate the left atrium, and custom software was implemented to quan
97 ht pSHF contributes to right atrium, ventral left atrium, and inferior AVC.
98 interatrial septum, pulmonary veins, roof of left atrium, and left posteroseptal mitral annulus and c
99 or diameter at annulus, right AVV overriding left atrium, and LV width.
100 ent catheterization of the pulmonary artery, left atrium, and right atrium, and a flow probe was posi
101                In guinea-pig left ventricle, left atrium, and right atrium, carbenoxolone increased R
102 res require careful navigation of the aorta, left atrium, and right heart, including detailed underst
103 changes in flow are evident by stasis in the left atrium, and seen as spontaneous echocontrast.
104 ial and antral areas, various regions of the left atrium, and the coronary sinus until AF terminated
105 the lung, an 18F sheath was delivered to the left atrium, and the left atrial port was closed using a
106 cantly the most efficacious, followed by the left atrium-aorta system and the left ventricle-aorta sy
107 d mean arterial pressure comparable with the left atrium-aorta system.
108 tracorporeal membrane oxygenation (n=4); (2) left atrium-aorta, TandemHeart system (n=4); (3) left ve
109                                          The left atrium appears to be the dominant chamber that sust
110                            In the dilated MR left atrium, areas of increased interstitial fibrosis an
111  the left atrial appendage compared with the left atrium as a whole, which may predispose the appenda
112       After baseline recording, we paced the left atrium at 20 Hz for 1 week and then monitored left
113 C) flips, with the belly being convex to the left atrium at midsystole and concave at maximal valve o
114 SNP), or adenosine through a catheter in the left atrium before and 30 minutes after infusion of cyan
115  of AF underwent 3-dimensional DE-MRI of the left atrium before the ablation.
116 ff titin isoform, and muscle from the bovine left atrium (BLA), which expresses more compliant titin
117 nd numerous ablation lesions in the low-flow left atrium, but cerebral embolic risk in ventricular ab
118 ooster pump in the body and appendage of the left atrium, but increased the conduit function of the l
119              PITX2 is expressed in the adult left atrium, but much less so in other heart chambers.
120 be regulated by NO* and was increased in the left atrium by 1.8-fold in AF (P<0.05).
121 ly, we perturb the routing of the gut to the left atrium by laser ablation and pharmacology to show t
122                Adequate decompression of the left atrium can be achieved by transseptal placement of
123 (CNR, 8.9 vs 7.5; image quality, 438 vs 91), left atrium (CNR, 8.0 vs 5.3; image quality, 1006 vs 29)
124 ess was lower for tachycardias involving the left atrium compared with right atrial tachycardias.
125 hythmias have AF secondary to pulmonary vein-left atrium conduction recovery.
126  within the left ventricle as well as in the left atrium confirmed the presence of cavity obliteratio
127   In seven patients (11%), no coronary sinus-left atrium connection was seen; however, all showed a c
128 l fibrillation group showed a coronary sinus-left atrium connection, which was single in five patient
129 length, number, and extent of coronary sinus-left atrium connections were recorded.
130             In contrast, the right posterior left atrium contained predominantly patchy DE.
131 complex myocyte arrangement in the posterior left atrium contributes to activation time dispersion ad
132 nt or inducible, complex electrograms in the left atrium, coronary sinus, and superior vena cava were
133                     We hypothesized that the left atrium could be accessed directly through the poste
134 ients, while contrast leakage and air in the left atrium could be excluded.
135  inside the right ventricle (-) and atop the left atrium (+) delivered shocks at 3 strengths (0.75, 1
136                            The difference in left atrium (Delta LA) volume index was significant (P=0
137 ion, (2) a reduction in cardiac fibrosis and left atrium diameter (marker of end-diastolic pressure),
138 66, 59% women; mean age, 63+/-10 years, mean left atrium diameter, 45+/-6 mm) with a history of parox
139 g-standing persistent AF (age, 68+/-7 years; left atrium diameter, 46+/-3 mm; and AF duration, 25+/-1
140 ft ventricular dimension, deceleration time, left atrium dimension, E/e', and pro B-type natriuretic
141 ulging of the mitral valve leaflets into the left atrium during ventricular systole.
142 ion] vs 19.0 +/- 7.8, P = .002) and lower LA left atrium ejection fraction (45.9 +/- 10.7 vs 51.3 +/-
143 +/-4.8 versus 28.6+/-4.3 cm(2); P=0.02), and left atrium (end-diastolic volume, 65+/-19 versus 72+/-1
144  left ventricular dysfunction (LVEF<50%) and left atrium enlargement were independently associated wi
145 ew York Heart Association III to IV classes, left atrium enlargement, and improvement/normality of LV
146 nts (88.9%), whereas 1 patient with multiple left atrium foci was treated with the surgical maze oper
147 ecessitates careful distinction of far-field left atrium from the local coronary sinus electrograms b
148 voir phase has been proposed as a measure of left atrium function in a range of cardiac conditions, w
149  morbidity were slight mitral regurgitation, left atrium &gt; or =40 mm, flail leaflet, atrial fibrillat
150 e MB-LATER score (Male, Bundle brunch block, Left atrium &gt;/=47 mm, Type of AF [paroxysmal, persistent
151       A bigger proportion of myocytes in the left atrium had organized T-tubules and topography than
152 r ablation of ganglionated plexi (GP) in the left atrium has been proposed in different subgroup of p
153  in 85% of patients (1.8 +/- 1.3) and in the left atrium in 90% of patients (2.0 +/- 1.3).
154  receptor (TGF-beta-RII-DN) in the posterior left atrium in a canine heart failure model will suffici
155 l of the right atrium and at the roof of the left atrium in Bachmann's bundle to allow bipolar pacing
156  was placed on the epicardial surface of the left atrium in dogs.
157  mostly due to extension of thrombi into the left atrium in prosthetic mitral valves.
158 r, mid-, and inferior parts of the posterior left atrium in reference to the spine.
159                         Decompression of the left atrium in this setting is essential for resolution
160                                     The mean left atrium instrumentation time was lower in the OIC-1
161 ough there was a decrease in fluoroscopy and left atrium instrumentation time with the use of OIC at
162 calized foci originating from pulmonary vein-left atrium interfaces.
163 and are consistent with a model in which the left atrium is activated predominantly over Bachmann's b
164                      The manner in which the left atrium is activated, as reflected by coronary sinus
165 e mitral annulus-aorta (MA-Ao) junction, the left atrium is continuous through the subaortic curtain
166 luid column between the pulmonary artery and left atrium is interrupted.
167 ereas the nerve-rich fat in the HF posterior left atrium is positively correlated with AF EGM entropy
168  atrial adipose tissue mass posterior to the left atrium is related to AF independent of demographica
169     Although Pitx2 is expressed in postnatal left atrium, it is unknown whether Pitx2 has distinct po
170                  TEE provides imaging of the left atrium, its appendage and the proximal thoracic aor
171 5 age matched patients selected to have NSR, left atrium (LA) > 4.0 cm but no SEC.
172 were recorded biatrially at baseline, in the left atrium (LA) after PVI and linear lesions (roof and
173 of congenital P-MAIVF communicating with the left atrium (LA) and an aberrant right subclavian artery
174 cal connections to the right atrium (RA) and left atrium (LA) and forms an RA-LA connection.
175 with endocardial dysfunction, limited to the left atrium (LA) and LAA and manifest as reduced nitric
176                 The size and function of the left atrium (LA) and right atrium (RA) are related close
177 imaging modalities are able to visualize the left atrium (LA) and, therefore, allow for quantificatio
178 s were made from a wide right atrium (RA) to left atrium (LA) bipole and digitally filtered.
179 )) and BK (1 microg) in combination into the left atrium (LA) caused an additive response in 16 affer
180 cle length (CL) gradient between PVs and the left atrium (LA) in an attempt to identify the subset of
181 aused by radiofrequency (RF) ablation of the left atrium (LA) in patients with atrial fibrillation ca
182  ml of PRP+collagen or PRP+thrombin into the left atrium (LA) increased activity of 16 cardiac affere
183 stributions at the human pulmonary vein (PV)-left atrium (LA) junction.
184 rial fibrillation (AF) by fast rotors in the left atrium (LA) or at the pulmonary veins (PVs) is not
185                    Pulmonary veins (PVs) and left atrium (LA) play a critical role in the pathophysio
186 othelin 1 (ET-1, 1, 2 and 4 microg) into the left atrium (LA) stimulated seven ischaemically sensitiv
187 zed that waves emanating from sources in the left atrium (LA) undergo fragmentation, resulting in lef
188 aluation of the pulmonary veins (PV) and the left atrium (LA) using computed tomography.
189 e ablation, extensive voltage mapping of the left atrium (LA) was performed using a multipolar Lasso
190                A servomotor connected to the left atrium (LA) was used to rapidly clamp LA pressure d
191 d (HCN2) pacemaker current isoform in canine left atrium (LA) would constitute a novel biological pac
192      The patterns of activation of the human left atrium (LA), how they relate to atrial myocardial a
193 activation between the right atrium (RA) and left atrium (LA), particularly along the right and left
194 he TxA(2) mimetic, U46619, injected into the left atrium (LA), stimulated seven ischaemically sensiti
195 e the risk of thromboembolic stroke from the left atrium (LA), the exact mechanisms remain poorly und
196 cardium likely affects its coupling with the left atrium (LA), this issue has not been investigated i
197 F) may result from stationary reentry in the left atrium (LA), with fibrillatory conduction toward th
198 side of the mediastinum and drained into the left atrium (LA).
199 ays preceded the earliest electrogram in the left atrium (LA).
200 ression and electrical function of the adult left atrium (LA).
201 ium (RA) and in all (n=19) recordings of the left atrium (LA).
202  a prosthesis positioned entirely within the left atrium (LA).
203 AF) based on low-voltage areas (LVAs) in the left atrium (LA).
204 d of 11 tachycardias (6 right atrium [RA], 4 left atrium [LA] and 1 biatrial).
205 led mononuclear leukocytes injected into the left atrium localized preferentially in previously ische
206  a left ventricular cavity >54 mm, 87% had a left atrium &lt;/=40, and 100% had an E/E' <12.
207  healthy native tissue, future access to the left atrium may be achieved.
208 raction between wave fronts in the right and left atrium may be important for maintenance of atrial f
209                 Ablation along the posterior left atrium may cause an atrioesophageal fistula.
210 on velocity and image intensity ratio in the left atrium (mean +/- SD) were 0.98 +/- 0.46 and 0.95 +/
211                               Coronary sinus-left atrium muscle connections were seen in 58 of the 65
212 t coronary sinus function and coronary sinus-left atrium muscle connections.
213  +/- 2.0 microm) and were more common in the left atrium (n = 206 cells; left atrium: 76 with TATS, 3
214  in the region of the pulmonary veins (n=5), left atrium (n=2), or crista terminalis (n=3).
215 he mitral valve (n=3) and in the roof of the left atrium (n=7).
216  in the right atrium and 53 +/- 23 ms in the left atrium) observed during AF were reactivated by a wa
217  bore vascular access, navigation within the left atrium, occlusion, snaring, and 3-dimensional relat
218 pse (MVP), an abnormal displacement into the left atrium of a thickened and redundant mitral valve du
219 GAP43-positive and TH-positive nerves in the left atrium of dogs with AF was 119+/-61 and 91+/-40 per
220 fic gene expression, including Shox2, in the left atrium of embryos and young adults.
221  p22phox were significantly increased in the left atrium of goats after 2 weeks of AF and in patients
222 t injection+electroporation in the posterior left atrium of plasmid expressing a dominant-negative TG
223    Conduction velocity did not change in the left atrium of the HF group and increased minimally in t
224 up B, n = 50) or to ablation of CFAEs in the left atrium or coronary sinus for up to 2 additional hou
225     We found no evidence that positive donor left atrium or postpreservation fluid cultures increase
226 est velocity region was either the posterior left atrium or the appendage.
227  related to stasis in either the body of the left atrium or the appendage.
228                   Linear ablation within the left atrium (OR, 0.22; 95% CI, 0.10-0.49; P<0.001), but
229  large structures (e.g., the left ventricle, left atrium, or sections of the aorta) where PVEs were n
230 regions, specifically in the inferoposterior left atrium (p < 0.01), superior right atrium (p < 0.05)
231  was greater in the right atrium than in the left atrium (P=0.004).
232                   The association between LA left atrium parameters and myocardial fibrosis was evalu
233                  Regular contractions of the left atrium persisted during the initial 7 mins of untre
234 ng atrial fibrillation (AF) in the posterior left atrium (PLA) and elsewhere are being used as target
235                All 4 pulmonary veins and the left atrium posterior wall were found isolated in 69% an
236 ll can change the electric conduction of the left atrium, potentially leading to atrial fibrillation
237                     Ang II infusion into the left atrium produced increases in ISF NE and Epi in norm
238                        Thermodynamics in the left atrium-pulmonary vein (PV) junction, phrenic nerve,
239 sue cooling spread radially from the balloon-left atrium-PV contact point.
240 were placed on the epicardial surface of the left atrium-PV junction, as well as on the phrenic nerve
241 determine how activation proceeding from the left atrium reaches the AV node.
242 vein (PV) isolation is associated with PV to left atrium reconduction.
243                Therefore, enlargement of the left atrium reflects remodeling associated with pathophy
244                                   Reduced LA left atrium regional and global function are related to
245 ease in regional blood flow to the right and left atrium, respectively, and acute hemorrhage, medial
246               Histological evaluation of the left atrium revealed that percent fibrosis was significa
247 X in guinea-pig heart in tissue samples from left atrium, right atrium, septum, left ventricle and ri
248 dial infarction and implantation of an LV-to-left atrium shunt to create standardized moderate volume
249 sessment of the pulmonary vein ostia and the left atrium size in computed tomography presents a good
250                       The variability of the left atrium size was 21% for the diameter and 35% for th
251  10.7 vs 51.3 +/- 8.7, P < .001), maximal LA left atrium strain ( Smax maximum LA strain ) (25.4 +/-
252 7 vs 30.6 +/- 10.6, P < .001) and maximum LA left atrium strain rate ( SRmax maximum LA strain rate )
253 +/- 0.42 vs -1.01 +/- 0.48, P < .001) and LA left atrium strain rate at atrial contraction peak ( SRA
254 9 +/- 0.51, P < .001), and lower absolute LA left atrium strain rate at early diastolic peak ( SRE LA
255 heterogeneously distributed in the posterior left atrium than in the left atrial appendage.
256 ge in DF/FI/Shannon entropy in the posterior left atrium than left atrial appendage, with the decreas
257 pronounced reverse remodeling effects on the left atrium that independently correlate with improved c
258              It also points out that a giant left atrium that occasionally occurs in patients with rh
259 causing them to stretch and balloon into the left atrium, the intrinsic tissue thickness is much less
260                           As viewed from the left atrium, the segment between markers 1 and 2 (seg12)
261  For ectopic foci in the pulmonary veins and left atrium, the site of conduction block and reentry gr
262  septal morphology were identified: 1) large left atrium, thick prominent septum secondary with thin
263  atrial septum (type B, n = 4), and 3) giant left atrium, thin atrial septum with severe mitral regur
264 8.3+/-7 versus 19.4+/-4.3 minutes; P<0.001), left atrium time (104+/-25 versus 92+/-23 minutes; P<0.0
265 ontractility, and greater force developed by left atrium to complete LV filling (all p < 0.05).
266                                     From the left atrium to distal PV, there was progressive shorteni
267 n was produced by inflating a balloon in the left atrium to increase left atrial pressure by 5 mmHg.
268 he left ventricle to aortic pressure, in the left atrium to left atrial pressure, and in all heart ch
269      There was a frequency gradient from the left atrium to the coronary sinus (p = 0.02).
270 erwent placement of 2 sonomicrometers on the left atrium, transesophageal echocardiography, and invas
271 restitution characteristics of the posterior left atrium, translating into a decrease in AF and incre
272       In a multivariable-adjusted estimates, left atrium volume >165 mL, absent normal sinus rhythm a
273    Persistent AF patients had larger indexed left atrium volume (55 +/- 18 ml vs. 41 +/- 12 ml and 47
274 , 1.20; 95% CI, 1.09-1.33; P<0.001), maximum left atrium volume before mitral valve opening (HR, 1.02
275 r longitudinal systolic function and maximum left atrium volume before mitral valve opening, and as s
276                                              Left atrium volume index increased during CNI (46.73+/-1
277 ar group had significantly higher minimum LA left atrium volume than the control group (mean, 22.0 +/
278                                           LA left atrium volume, strain, and strain rate were analyze
279 ion and measured global longitudinal strain, left atrium volumes, and PALS within 48 hours of admissi
280           Distance between the esophagus and left atrium was 4.4+/-1.2 mm.
281 ority were ablated for the first time (71%); left atrium was 43+/-6 mm; and left ventricular function
282                                Access to the left atrium was achieved in all 5 animals and all surviv
283                                          The left atrium was directly catheterized for left atrial pr
284  the 3311 patients with echocardiograms, the left atrium was enlarged in 64.7 percent and left ventri
285                  Inability to decompress the left atrium was fatal in two patients.
286                     Mapping of the right and left atrium was performed using conventional electrode c
287                A simulated trajectory to the left atrium was present in all of 10 human cardiac compu
288 etween inferior vena cava, right atrium, and left atrium were found.
289                      The pulmonary veins and left atrium were mapped during spontaneous or induced AF
290             Catheter/sheath manipulations in left atrium were performed in 25 of 27 pigs outfitted wi
291 emperature control, no char was noted in the left atrium, whereas 8% of the right atrium burns had ch
292  the ruptured head may not prolapse into the left atrium, which makes diagnosis by transthoracic or t
293  vena cava, right atrium, foramen ovale, and left atrium with a guidewire and 1.8F to 2.6F tapered ca
294 36 hemodynamic stages in vivo, replacing the left atrium with a rigid chamber and column for direct v
295 olation of the pulmonary veins and posterior left atrium with a single ring of radiofrequency lesions
296 T study, favorable reverse remodeling of the left atrium with CRT-D therapy was associated with a sig
297 the introducer sheath was tracked toward the left atrium with the use of novel miniature MR guide wir
298  primary adherent (type A, n = 12); 2) small left atrium with thick, muscular atrial septum (type B,
299 ction of TGF-beta signaling in the posterior left atrium-with resulting decrease in replacement fibro
300 to-right interatrial shunt to decompress the left atrium (without compromising left ventricular filli

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