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1 ulopathy characterized by thromboembolic and hemorrhagic complications.
2 pplied to predict severe maternal outcome in hemorrhagic complications.
3 ney transplantation (KT) outcomes in case of hemorrhagic complications.
4 13%) patients but there was no PP-related or hemorrhagic complications.
5  in prothrombin times, and in the absence of hemorrhagic complications.
6               ACT, however, does not predict hemorrhagic complications.
7 tion but with higher risks of infectious and hemorrhagic complications.
8 ed their differential impact on ischemic and hemorrhagic complications.
9 erapy is often refrained from out of fear of hemorrhagic complications.
10 osage, anticoagulation control, and risk for hemorrhagic complications.
11  infection, but with more thromboembolic and hemorrhagic complications.
12 ing time (ACT) for prevention of ischemic or hemorrhagic complications.
13  nonfatal MI, rehospitalization, stroke, and hemorrhagic complications.
14 the potential for gastrointestinal upset and hemorrhagic complications.
15 ion is occasionally needed to treat or avoid hemorrhagic complications.
16 rombin have been anecdotally associated with hemorrhagic complications.
17  and 1 (4%) with a choroidal lesion suffered hemorrhagic complications.
18 of clotting factors, which may cause profuse hemorrhagic complications.
19 icial for patients with an increased risk of hemorrhagic complications.
20  model and were not associated with untoward hemorrhagic complications.
21 s, which are prone to bleed, causing serious hemorrhagic complications.
22 y performed because of the perceived risk of hemorrhagic complications.
23 dysfunction in EDS is likely contributing to hemorrhagic complications.
24 eplase results in similar outcomes but fewer hemorrhagic complications.
25 ced against a likelihood of developing major hemorrhagic complications.
26 nts receiving ECMO are at particular risk of hemorrhagic complications.
27 creased risk for mortality from ischemic and hemorrhagic complications.
28 with CKD are at high risk for thrombotic and hemorrhagic complications.
29 nherent risk of potential thromboembolic and hemorrhagic complications.
30 s randomized to the TriActiv System had more hemorrhagic complications (10.9% vs. 5.4%; p = 0.01).
31 ercent, P<0.001), but they had more frequent hemorrhagic complications (17 percent vs. 5 percent, P<0
32                               In 8 patients, hemorrhagic complications (5 autoantibodies and 3 bovine
33 nts]; OR, 6.8; P = .004) and a lower rate of hemorrhagic complications (5.2% [five of 96 patients] vs
34 anemia more frequently developed in-hospital hemorrhagic complications (6.2% vs. 2.4%, p = 0.002), ha
35 hrombosis (11%), venous thrombosis (7%), and hemorrhagic complications (8%).
36  patients with major bleeding or at risk for hemorrhagic complications, administration of platelet co
37                                              Hemorrhagic complications affect patient prognosis both
38 ction of CXCL13 and IL-6, and thrombotic and hemorrhagic complications affecting multiple organs with
39     With the exception of severe ischemic or hemorrhagic complications affecting the abdominal organs
40 al death and the development of ischemic and hemorrhagic complications and ICU-acquired infections.
41 rain injury (ABI) frequency, thrombotic, and hemorrhagic complications and mortality in COVID-19- vs.
42                      The association between hemorrhagic complications and mortality may explain the
43 dural BP characteristics and recanalization, hemorrhagic complications and outcome in patients receiv
44  is markedly limited owing to concerns about hemorrhagic complications and the requirement that tPA b
45                       Clinically significant hemorrhagic complications and thrombocytopenia were infr
46 ion of dabigatran to avoid the deaths due to hemorrhagic complications and thromboembolic stroke in c
47                                              Hemorrhagic complications and transfusion requirements w
48           No patient developed a significant hemorrhagic complication, and each patient's platelet co
49 cessful reperfusion, good clinical outcomes, hemorrhagic complications, and mortality.
50 ; p = 0.06), but COVID-19 patients had fewer hemorrhagic complications (aOR, 0.27; 95% CI, 0.17-0.42;
51                                              Hemorrhagic complications are frequently implicated clin
52                               Thrombotic and hemorrhagic complications are prevalent in patients with
53 rently employed have encountered significant hemorrhagic complications, as well as complications from
54 educes both cerebrovascular permeability and hemorrhagic complications associated with late administr
55 t correlated with an increased occurrence of hemorrhagic complications, but bleeding complications di
56                             The composite of hemorrhagic complications did not occur more often in th
57                It is characterized by severe hemorrhagic complications due in part to excessive fibri
58                                              Hemorrhagic complications during EUS-guided pseudocyst d
59 (8.7%) patients exhibited severe ischemic or hemorrhagic complications during the ICU stay.
60 nticoagulants, there is an increased risk of hemorrhagic complications for these men.
61                    To discuss thrombotic and hemorrhagic complications from angiogenesis inhibitors a
62 ildren, sisters, both with severe, recurrent hemorrhagic complications from factor VII deficiency, su
63                                              Hemorrhagic complications from intracranial pressure mon
64 on is known to induce a prothrombotic state, hemorrhagic complications have also been reported in pat
65                                              Hemorrhagic complications have been strongly linked with
66                           GIB is a potential hemorrhagic complication in patients with ACS treated wi
67 nor functioned adequately, and there were no hemorrhagic complications in any of the recipients.
68 ac performance with a low incidence of major hemorrhagic complications in patients with documented es
69                   No threshold was found for hemorrhagic complications in patients with or without gl
70 milar suppression of ischemia while reducing hemorrhagic complications in patients with stable angina
71 bin concentration, in reinterventions due to hemorrhagic complications, in the use of erythropoiesis-
72                            Both ischemic and hemorrhagic complications increase mortality rate in acu
73 e its association with a higher frequency of hemorrhagic complications, intraarterial infusion of uro
74 ]; P < .001) and not significantly different hemorrhagic complications (OAC: 14/172 [8.1%] vs no OAC:
75                                  Significant hemorrhagic complications occur with living kidney donat
76                                              Hemorrhagic complications occurred in 10 patients (1.8 p
77                                        Major hemorrhagic complications occurred in 3 recipients, all
78 croL (platelets), no secondary infectious or hemorrhagic complications occurred.
79 possibility that rupture represents an early hemorrhagic complication of thrombolytic therapy should
80 ion of annexin II may be a mechanism for the hemorrhagic complications of APL.
81 tion of antiplatelet therapy and the risk of hemorrhagic complications of having a surgical procedure
82                                    To define hemorrhagic complications of living kidney donation, a s
83  of ocular complications, including uveitis, hemorrhagic complications, optic disc edema, and dry eye
84       Clinically, the dengue virus can cause hemorrhagic complications or ocular inflammation.
85 ion in mRS scores 0-2 (OR, 2.04; P = .45) or hemorrhagic complications (OR, 0.60; P = .63).
86                                              Hemorrhagic complication rates in pediatric stroke are u
87                    Two patients (0.7%) had a hemorrhagic complication requiring transfusion, and anot
88 r hematocrit >5% in the first week after KT, hemorrhagic complications requiring surgery, and de novo
89  clinical guidelines to minimize the risk of hemorrhagic complications such as epidural hematoma.
90 al inflammation, leading to substantial post-hemorrhagic complications such as vasospasm and delayed
91 f stent thrombosis, although there were more hemorrhagic complications than with aspirin alone.
92 F) plays an important role in triggering the hemorrhagic complications that characterize EBOV infecti
93                                 Unlike major hemorrhagic complications, there is no evidence that the
94                                              Hemorrhagic complications were associated with an increa
95 e of symptomatic intracranial hemorrhage and hemorrhagic complications were classified based on the S
96                                              Hemorrhagic complications were infrequent, with no signi
97                                              Hemorrhagic complications were lower with the reduced-do
98                                              Hemorrhagic complications were noted, and the Fisher exa
99                   Where data were available, hemorrhagic complications were rare in intracranial pres
100                                              Hemorrhagic complications were reported in 579 patients
101                                     No major hemorrhagic complications were reported.
102  disease and require ocular intervention for hemorrhagic complications when compared with matched pat
103 ation of vision, resolution of exudative and hemorrhagic complications with regression of polyps in p
104                                     Rates of hemorrhagic complications with the two drugs were simila
105 o suggest a higher risk of thromboembolic or hemorrhagic complications with use of dabigatran for per

 
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