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1 iliary sphincterotomy and the placement of a large-bore (10-French) plastic stent.
2 l advantage over the control group after the large-bore (21-gauge) needle puncture.
3 re essential, and thus, novel mechanisms for large-bore access have evolved.
4 iew explores the comprehensive management of large-bore accesses, from optimal vascular puncture to s
5 nd methods of the 2 most common percutaneous large-bore alternative access strategies: transaxillary
6 nce of these adverse events, particularly in large-bore arterial access.
7 sure device can safely and effectively close large bore arteriotomies created by current generation t
8  collagen-based technology designed to close large bore arteriotomies created by devices with an oute
9 fectiveness and safety in the closure of the large-bore arteriotomy.
10 ter materials and design have allowed use of large-bore bearings, which provide an increased range of
11 nt patients with BAS refractory to long-term large bore catheterization.
12 mporary endovascular interventions involving large-bore catheters and its association with in-hospita
13 o underwent transcatheter intervention using large-bore catheters and was associated with a statistic
14 aneous transcatheter interventions that used large-bore catheters are frequent and associated with hi
15  easily exploited for applications employing large bore chromatography.
16  (124)I antibody fragment PET images using a large-bore clinical scanner, which enables high-throughp
17  biorelevant gastrointestinal fluid across a large-bore column (maintained at 37.0 +/- 2.0 degrees C)
18 such separations are performed on relatively large bore columns requiring flow rates of >=5 mL/min, t
19                                              Large-bore device percutaneous procedures with closure d
20 ion high-efficiency nebulizer (DIHEN); (2) a large-bore DIHEN; and (3) a MicroFlow PFA nebulizer with
21 ion high-efficiency nebulizer (DIHEN); (2) a large-bore DIHEN; and (3) a PFA microflow nebulizer with
22                                            A large bore-direct injection high efficiency nebulizer (I
23             However, because of the need for large-bore femoral access (14 F for the commonly used Im
24 -resolution imaging, multi-spectral sensing, large-bore flow cytometry, and machine learning to extra
25            Purpose To evaluate the safety of large bore (>=18 gauge) image-guided splenic biopsy.
26 proved techniques, these devices necessitate large-bore (>=12 French) arterial/venous sheaths, posing
27          These findings support the use of a large bore high-volume evacuator whenever an ultrasonic
28                                          Two large bore infiltrators (1 m diameter) were installed at
29 al artery access is the default strategy for large-bore interventional procedures, including temporar
30 ile allowing 98% of the HPLC effluent from a large-bore LC column to be collected and concentrated fo
31 isk factors randomized 1:1 to treatment with large-bore mechanical thrombectomy (LBMT) or catheter-di
32 , the shear stress of fluid aspirated into a large-bore micropipette was then used to forcibly peel m
33 studied for accidental dural puncture with a large bore needle.
34                          Conventionally used large bore needles (Tuohy or Pajunk needle; LBN) have be
35 iliary sphincterotomy and the placement of a large-bore plastic stent is associated with a high rate
36 tures (BBS) respond to placement of multiple large-bore plastic stents, though requiring multiple pro
37 ically proven mesothelioma who had undergone large-bore pleural interventions in the 35 days prior to
38 pond to endoscopic transmural drainage using large-bore, self-expanding metal stents/lumen-apposing m
39 bolism during catheter exchanges through the large bore sheath (13.8 F ID).
40                          In these procedures large-bore sheath devices are used.
41 ations, particularly those due to the use of large-bore sheaths, may limit outcomes in these patients
42 rapy in all patients with mesothelioma after large-bore thoracic interventions is not justified.
43                    Given the rapid growth of large-bore transcatheter procedures, bleeding avoidance
44  wells connected with type I collagen-coated large bore tubing and has recirculating media.
45                     Component blocks include large bore vascular access, navigation within the left a
46                        Therefore, optimizing large-bore vascular access management is crucial in endo