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1 use of the limited effectiveness of existing thrombolytics.
2 ing vessel recanalization with intraarterial thrombolytics.
3 tracerebral haemorrhage after treatment with thrombolytics (2 [7%] telemedicine vs 2 [8%] telephone,
4 from baseline to the fifth year: intravenous thrombolytics (42.09% versus 72.84%), early antithrombot
5  the systemic circulation but regenerate its thrombolytic action upon contact with thrombin present o
6       Our objective was to assess endogenous thrombolytic activity in acute coronary syndrome (ACS) p
7  These data show for the first time a potent thrombolytic activity of ADAMTS13 in the setting of stro
8 hen evaluated in a rat thrombosis model, the thrombolytic activity of camouflaged tPA was similar to
9 ether ultrasonography can safely enhance the thrombolytic activity of t-PA.
10 ntration-dependent fashion the catalytic and thrombolytic activity of tissue plasminogen activator in
11  reactivity, allows assessment of endogenous thrombolytic activity to identify ACS patients who remai
12  besides the unquestionable benefit from its thrombolytic activity, tPA also has a deleterious effect
13 y patients at risk for thrombosis and inform thrombolytic administration for treating acute thrombosi
14 ystolic flow reversal (pulsatile flow) after thrombolytic administration on coronary angiography is a
15 would be related to long-term outcomes after thrombolytic administration.
16 ctive treatment option in conjunction with a thrombolytic agent for stroke patients.
17 uture directions for a safer use of tPA as a thrombolytic agent in the setting of acute ischemic stro
18                              The effect of a thrombolytic agent on biochemical bond degradation was m
19 VWF) that blocks VWF binding to GPIb, of the thrombolytic agent recombinant tissue plasminogen activa
20                    Finally, we show that the thrombolytic agent streptokinase has therapeutic value f
21 f important virulence factors, including the thrombolytic agent streptokinase, the protease inhibitor
22 ich regulates the expression of pili and the thrombolytic agent streptokinase.
23  urokinase-type plasminogen activator or the thrombolytic agent streptokinase.
24 lacing of the thrombus with a fibrin-binding thrombolytic agent such as alteplase is an alternative t
25 oup analyses to assess the effect of type of thrombolytic agent used and the strategy of emergent hos
26 up, and were independent of both the type of thrombolytic agent used, and whether or not the patient
27 minogen activator (TPA) with a direct-acting thrombolytic agent, plasmin, in an animal model of fibri
28 sue plasminogen activator, is an alternative thrombolytic agent.
29 ffinity obviates continuous infusion of this thrombolytic agent.
30  therapy and it is also used clinically as a thrombolytic agent.
31 , including intra-arterial administration of thrombolytic agents and mechanical interventions, show p
32 outcomes of patients with OTPHV treated with thrombolytic agents and with surgery since 1996.
33 TAFIa could enhance the efficacy of existing thrombolytic agents for the treatment of acute myocardia
34                                          All thrombolytic agents in current clinical usage are plasmi
35  as well as local intra-arterial delivery of thrombolytic agents in patients with acute stroke, are t
36 py may be a non-invasive safe alternative to thrombolytic agents in treating thrombotic CVC occlusion
37                                        Newer thrombolytic agents may have advantages, but are less we
38                   Our findings indicate that thrombolytic agents may have therapeutic value in the tr
39                             New devices, new thrombolytic agents, and new antithrombotic agents are c
40 learest indication for the administration of thrombolytic agents, but patients with acute pulmonary e
41 swered questions remain regarding the use of thrombolytic agents.
42 inogen activator are the currently available thrombolytic agents.
43 nimizes the duration of systemic exposure to thrombolytic agents.
44 tra-arterial thrombolysis, and trials of new thrombolytic agents.
45 tion, and the concomitant use of intravenous thrombolytics, among others.
46 a, a condition shown by itself to reduce the thrombolytic and proteolytic properties of tissue plasmi
47                  Myxomavirus Serp-1 inhibits thrombolytic and thrombotic proteases, whereas mammalian
48 ilities, patients who received intracoronary thrombolytics, and those who received no medications wit
49  therefore also help in designing new, safer thrombolytic approaches.
50 ral arterial access site, >6-Fr sheath size, thrombolytics, arterial dissection, fluoroscopy time >30
51 lready arrested, the difficulty of obtaining thrombolytics at the bedside rapidly enough to administe
52  Furthermore, facilitated interventions with thrombolytic-based regimens should be avoided.
53  elevation myocardial infarction who receive thrombolytics, clopidogrel therapy confers broad benefit
54 bition in myocardial infarction treated with thromboLYtics (COMPLY) and COMplement inhibition in Myoc
55 ment elevation were eligible for IMR but had thrombolytic contraindications after excluding patients
56 inutes, from emergency department arrival to thrombolytic delivery.
57 as shortening ischemic times with the use of thrombolytic donor flush, may prevent IC after DCD LT.
58    Plasmin at 4-fold, 6-fold, and 8-fold the thrombolytic dose (1 mg/kg) induced a dose-dependent eff
59  a dose-dependent manner, even at 25% of the thrombolytic dose (1 mg/kg), manifest as rebleeding from
60         Bleeding occurred only at 8-fold the thrombolytic dose, on complete depletion of fibrinogen a
61 inogen activator (t-PA) is the only approved thrombolytic drug for ischemic stroke.
62                                    The newer thrombolytic drug tenecteplase has been investigated in
63  clots using a significantly lower amount of thrombolytic drug than is required when administered in
64 er, whether or not helium interacts with the thrombolytic drug tissue plasminogen activator, the only
65 ed alternative anticoagulants (11 patients), thrombolytic drugs (3 patients), inferior vena cava filt
66                        The administration of thrombolytic drugs outside hospital by emergency physici
67 formed with a variety of neuroprotective and thrombolytic drugs provide many lessons that will help t
68 selection are investigating alteplase, other thrombolytic drugs, and novel endovascular devices, for
69                    Despite the common use of thrombolytic drugs, especially in stroke treatment, ther
70 ally improve both the efficacy and safety of thrombolytic drugs, particularly in patients who are at
71 nt mass loss/min in vitro without any use of thrombolytic drugs.
72 ate and thus minimizing the required dose of thrombolytic drugs.
73 d diagnosis of pulmonary embolism and use of thrombolytics during cardiopulmonary resuscitation may n
74  the lack of good data supporting the use of thrombolytics during resuscitation, the belief that thro
75    We hypothesized that ADAMTS13 can exert a thrombolytic effect in VWF-containing thrombi in the set
76                            After stroke, the thrombolytic effect of tissue-type plasminogen activator
77 oelastography and was able to potentiate the thrombolytic effect of tPA in vivo in a murine model.
78 d widening of the therapeutic window for the thrombolytic effect of tPA.
79 erformed to study the molecular bases of NAC thrombolytic effect, including platelet aggregometry, pl
80 nce that the molecular target underlying the thrombolytic effects of NAC is principally the VWF that
81                                     Although thrombolytic effects of tissue plasminogen activator (tP
82 ic stroke outcome, suggesting that it exerts thrombolytic effects without significantly impairing nor
83 ic GpIIb/IIIa inhibitor further improved its thrombolytic efficacy, essentially by accelerating throm
84 developed systems, and (iv) testing of their thrombolytic efficacy.
85                                              Thrombolytics (eg, tissue-type plasminogen activator [tP
86 rials, which together randomly assigned 7739 thrombolytic-eligible patients with ST-segment elevation
87 in blood, where its primary function is as a thrombolytic enzyme, and in the central nervous system w
88                         Plasmin, the pivotal thrombolytic enzyme, is generated on the surface of many
89 n of plasminogen, the zymogen of the primary thrombolytic enzyme, plasmin, is markedly promoted when
90 sue-type plasminogen activator (tPA) is as a thrombolytic enzyme.
91 r inhibitor-1 (PAI-1) are causal factors for thrombolytic failure.
92 ient warm ischemia time (WIT) and the use of thrombolytic flush at the time of procurement to minimiz
93                             Prophylaxis with thrombolytic flushes might prevent CVC infections and ca
94             To increase the effective use of thrombolytics for acute stroke, the expertise of vascula
95  the fulfillment of the dual, hemostatic and thrombolytic, functions of thrombin.
96 ng stroke recovery long after the window for thrombolytics has passed.
97                          Clinically approved thrombolytics have significant drawbacks, including blee
98 m outcomes prediction on original Killip and thrombolytic in myocardial infarction scores.
99 rdiopulmonary arrest and discuss the role of thrombolytics in cardiopulmonary resuscitation.
100 ted heparin was administered in 33 (87%) and thrombolytics in four (11%).
101 hermore, combination treatment compared with thrombolytic monotherapy increased cerebral blood flow a
102 , the practicality of using alteplase as the thrombolytic of choice for this indication remained conj
103  assess their suitability for treatment with thrombolytics, on the basis of standard criteria.
104  enzyme elevation, some argue for the use of thrombolytics or catheter thrombectomy even for hemodyna
105 .7, 95% CI 1.3 to 5.5; p = 0.0092) with more thrombolytic (OR 4.7, 95% CI 2.3 to 9.7; p < 0.0001) and
106 as mammalian neuroserpin (NSP) inhibits only thrombolytic proteases.
107 diated sonothrombolysis device for improving thrombolytic rate and thus minimizing the required dose
108              Nine children who underwent the thrombolytic regimen and 13 who received standard antico
109  analyze our institutional experience with a thrombolytic regimen versus standard anticoagulation for
110                                          The thrombolytic regimen was associated with a markedly decr
111 UFH as adjunctive therapy in fibrin-specific thrombolytic regimens and improve coronary reperfusion r
112 ase is an alternative to continuous-infusion thrombolytic regimens and minimizes the duration of syst
113 sed the importance of presenting the risk of thrombolytic-related intracranial hemorrhage.
114 vere cerebral WMLs were associated with post-thrombolytic rPH but not with iPH within the ischemic ar
115 gment elevation AMI and contraindications to thrombolytics should be strongly considered.
116 ntial solution of this problem by developing thrombolytic sol-gel coatings which potentially could le
117                     Assessment of endogenous thrombolytic status based on the lysis of platelet-rich
118 rombosis test (GTT) to assess thrombotic and thrombolytic status in 300 ACS patients receiving dual-a
119                                       Recent thrombolytic studies have suggested that simple measures
120 ed is an effective therapy with an excellent thrombolytic success rate for the treatment of prostheti
121 able by contact pathway inhibition, although thrombolytic susceptibility may benefit from polyP antag
122 rfusion induced by the administration of the thrombolytic Tenecteplase (TNK, 1.5 mg/kg, IV bolus) in
123                                              Thrombolytic therapies were permitted.
124 t from anticoagulation, and less frequently, thrombolytic therapies.
125       However, this model is not amenable to thrombolytic therapies.
126 nalyzed for standard ST-segment criteria for thrombolytic therapy (>1 mm in two or more contiguous le
127 sease (1.33); treatment approaches including thrombolytic therapy (1.39) and non-stent devices (1.64)
128 th HF, P<0.0001), and more likely to receive thrombolytic therapy (14% versus 11%; P=0.0001).
129 -3.6% to -1.4%; P < .001) and greater use of thrombolytic therapy (4.8% vs 1.7%; adjusted difference,
130                   Most patients who received thrombolytic therapy (76%, n=2939) received a fibrin-spe
131 nt elevation AMI to primary PTCA (n=3872) or thrombolytic therapy (n=3867).
132 erfusion therapy, mainly owing to "patented" thrombolytic therapy (odds ratio 1.15; p = 0.016).
133 that have impeded the more widespread use of thrombolytic therapy (tPA, tissue plasminogen activator)
134 t the bleeding complications associated with thrombolytic therapy after ischemic stroke might be coun
135 ies comprising 756 patients who had received thrombolytic therapy and 13 studies comprising 662 patie
136                           With the advent of thrombolytic therapy and angioplasty, it has become poss
137 I, resulting in failure to meet criteria for thrombolytic therapy and as a consequence leading to ina
138 It is widely used as a fibrinolytic agent in thrombolytic therapy and it is also used clinically as a
139                           The equivalency of thrombolytic therapy and surgery for the treatment of su
140 y group did not meet ST-segment criteria for thrombolytic therapy as compared with the control group
141 ly reperfusion has led to the development of thrombolytic therapy as the cornerstone of current manag
142                 Primary PTCA was better than thrombolytic therapy at reducing overall short-term deat
143 rials is greatly needed to establish whether thrombolytic therapy can be considered standard of care
144  there is a low haemorrhagic threshold after thrombolytic therapy compared with that in wild-type mic
145 ry PTCA remained better than those seen with thrombolytic therapy during long-term follow-up, and wer
146  a patient who was successfully treated with thrombolytic therapy during pulmonary embolism-induced c
147 ity of Food and Drug Administration-approved thrombolytic therapy for acute ischemic stroke since 199
148 ave been introduced are discussed, including thrombolytic therapy for acute ischemic stroke, induced
149 erfusion success and clinical outcomes after thrombolytic therapy for acute myocardial infarction (AM
150 tracerebral haemorrhage is a complication of thrombolytic therapy for acute myocardial infarction, pu
151 ransluminal coronary angioplasty (PTCA) with thrombolytic therapy for acute ST-segment elevation myoc
152 th a poor prognosis in patients treated with thrombolytic therapy for AMI.
153 w is to provide an update on the progress of thrombolytic therapy for CRAO.
154 size and improve mortality in the setting of thrombolytic therapy for ST-elevation myocardial infarct
155  and safety and increase the time window for thrombolytic therapy for stroke with full- and half-dose
156 resent findings suggest that APC may improve thrombolytic therapy for stroke, in part, by reducing tP
157  unable to apply stockings, or they received thrombolytic therapy for the initial treatment of acute
158          Primary PTCA is more effective than thrombolytic therapy for the treatment of ST-segment ele
159 percutaneous coronary intervention (PCI) and thrombolytic therapy for treatment of acute myocardial i
160                      These data suggest that thrombolytic therapy for treatment of CNS ischemic disor
161                                    Recently, thrombolytic therapy has been suggested as a viable ther
162                                              Thrombolytic therapy has rarely been used in these patie
163                                              Thrombolytic therapy has yet to be validated as an effec
164 tly increasing the time window for effective thrombolytic therapy in acute ischemic stroke.
165 review is to offer an overview of the use of thrombolytic therapy in acute pulmonary embolism.
166 Registry, we examined the outcomes of use of thrombolytic therapy in patients with ischemic stroke wh
167                                   The use of thrombolytic therapy in pediatrics has increased over th
168 inical trials suggests a survival benefit of thrombolytic therapy in the elderly with STEMI, whereas
169 quate statistical power to determine whether thrombolytic therapy is associated with improved surviva
170 lytics during resuscitation, the belief that thrombolytic therapy is ineffective once a patient has a
171      However, administration of conventional thrombolytic therapy is limited by a low efficacy of pre
172                            When this occurs, thrombolytic therapy is not routinely administered.
173   Current treatment of ischaemic stroke with thrombolytic therapy is restricted to 3-4.5 h after symp
174                                              Thrombolytic therapy is the cornerstone of treatment of
175    Case reports and case series suggest that thrombolytic therapy may be associated with lower risks
176                                              Thrombolytic therapy may be beneficial in the treatment
177 en for CRAO, emerging evidence suggests that thrombolytic therapy may be effective if administered pr
178    Intracoronary infusion of fibrin-specific thrombolytic therapy may provide a valuable and safe opt
179                                              Thrombolytic therapy may reduce the frequency of high in
180  the latest prospective study has shown that thrombolytic therapy not only has no beneficial effect b
181                                              Thrombolytic therapy of PVT has an unpredictable risk of
182  components of thrombotic development and of thrombolytic therapy of rtPA observed from human ischemi
183 re hemodynamically stable and do not require thrombolytic therapy or other interventions.
184 rin, beta-blockers, and reperfusion therapy (thrombolytic therapy or percutaneous coronary interventi
185 our of initial ECG, and overall reperfusion (thrombolytic therapy or PTCA).
186 morbidity and mortality, and the efficacy of thrombolytic therapy propelled the development and matur
187 best subsequent management of patients after thrombolytic therapy remains unclear.
188                                              Thrombolytic therapy results in the accelerated lysis of
189                                              Thrombolytic therapy sessions were performed under trans
190                                              Thrombolytic therapy should be considered first-line the
191                                              Thrombolytic therapy use increased from 0.7% to 1.0% (p
192                                              Thrombolytic therapy using tissue plasminogen activator
193 es were randomized clinical trials comparing thrombolytic therapy vs anticoagulant therapy in pulmona
194 echocardiogram suggesting pulmonary embolus, thrombolytic therapy was administered during cardiopulmo
195 y stable with right ventricular dysfunction, thrombolytic therapy was associated with lower rates of
196 ystolic BP <100 mm Hg) who were eligible for thrombolytic therapy were randomized to either transfer
197 of ST-segment elevation and the frequency of thrombolytic therapy were significantly lower in the sul
198                                              Thrombolytic therapy with rtPA increases the risk of hem
199 mboembolism at baseline conditions and after thrombolytic therapy with streptokinase or alteplase.
200 on is, however, essential to improve current thrombolytic therapy with tissue plasminogen activator (
201  controls and 53.3% of TPI patients received thrombolytic therapy within 1 hour (P > 0.2), and 67.6%
202  of patients receiving thrombolytic therapy, thrombolytic therapy within 1 hour of initial ECG, and o
203 rapy, 41.1% versus 53.6% (P = 0.04) received thrombolytic therapy within 1 hour, and 50.7% versus 66.
204 rapy, 40.5% versus 48.4% (P = 0.10) received thrombolytic therapy within 1 hour, and 55.7% versus 65.
205 erapy, 51.4% versus 45.3% (P > 0.2) received thrombolytic therapy within 1 hour, and 67.6% versus 63.
206 rapy, 53.2% versus 58.6% (P = 0.08) received thrombolytic therapy within 1 hour, and 67.7% versus 74.
207 ncreased use of thrombolytic therapy, use of thrombolytic therapy within 1 hour, and use of overall c
208 roup, 48.1% versus 58.2% (P = 0.03) received thrombolytic therapy, 40.5% versus 48.4% (P = 0.10) rece
209 roup, 47.3% versus 63.2% (P = 0.01) received thrombolytic therapy, 41.1% versus 53.6% (P = 0.04) rece
210 group, 59.5% versus 53.9% (P > 0.2) received thrombolytic therapy, 51.4% versus 45.3% (P > 0.2) recei
211 and 62.1% of TPI patients (P = 0.2) received thrombolytic therapy, 52.5% of controls and 53.3% of TPI
212 roup, 61.1% versus 67.6% (P = 0.03) received thrombolytic therapy, 53.2% versus 58.6% (P = 0.08) rece
213 d, including vascular pathologies, diabetes, thrombolytic therapy, and dysfibrinogenemia.
214 ss likely to receive aspirin, beta-blockers, thrombolytic therapy, angiography, and angioplasty durin
215 d discusses the current agents available for thrombolytic therapy, as well as indications for their u
216 there was no systematic worsening of time to thrombolytic therapy, balloon inflation, medication use
217  to reduce the complications associated with thrombolytic therapy, broaden the therapeutic window, an
218 as early enough to make it relevant to acute thrombolytic therapy, early BBB disruption as defined by
219 al data regarding the safety and efficacy of thrombolytic therapy, inferior vena cava filters, and em
220                       Despite the benefit of thrombolytic therapy, on the basis of the results of cas
221 shed studies evaluating the effectiveness of thrombolytic therapy, primary percutaneous coronary inte
222                             As compared with thrombolytic therapy, primary percutaneous transluminal
223                Patients with cardiac arrest, thrombolytic therapy, prior revascularization, or missin
224  4.0% for stroke (P =.28) for primary PCI vs thrombolytic therapy, respectively.
225 includes aggressive wound care, debridement, thrombolytic therapy, restoration of tissue oxygenation,
226 t elevation myocardial infarction undergoing thrombolytic therapy, the degree of ST-segment resolutio
227 tion of patients most likely to benefit from thrombolytic therapy, the eligibility criteria were a pe
228            Percentages of patients receiving thrombolytic therapy, thrombolytic therapy within 1 hour
229 enefits of primary angioplasty compared with thrombolytic therapy, transfer to an institution with an
230                                Compared with thrombolytic therapy, treatment of patients with primary
231                     The TPI increased use of thrombolytic therapy, use of thrombolytic therapy within
232 re 2 reperfusion strategies, primary PCI and thrombolytic therapy, which are both supported by clinic
233 ep venous system in 16 patients (80%) during thrombolytic therapy, with complete resolution of sympto
234 es resulted in complete thrombus lysis after thrombolytic therapy.
235 ours of stroke onset prior to treatment with thrombolytic therapy.
236   Only a minority of stroke patients receive thrombolytic therapy.
237 hway may have beneficial consequences during thrombolytic therapy.
238 tly lower mortality and more frequent use of thrombolytic therapy.
239 mbosis and have significant implications for thrombolytic therapy.
240 ulmonary embolism or serious bleeding during thrombolytic therapy.
241 ce of asymptomatic pulmonary embolism during thrombolytic therapy.
242 ential to optimize management and triage for thrombolytic therapy.
243 ass grafting (CABG) is frequently used after thrombolytic therapy.
244 ical stroke and to extend the time window of thrombolytic therapy.
245 ome, other than an increased use of patented thrombolytic therapy.
246 tion MI treated with primary PCI rather than thrombolytic therapy.
247 nary artery bypass graft (CABG) surgery, and thrombolytic therapy.
248 vor with a PE index higher than 60% received thrombolytic therapy.
249 usion with percutaneous coronary stenting or thrombolytic therapy.
250 arly marker of long-term clinical benefit of thrombolytic therapy.
251 yme have potential use in antithrombotic and thrombolytic therapy.
252 ment elevation who have contraindications to thrombolytic therapy.
253 ul as a marker of microvascular injury after thrombolytic therapy.
254  better outcomes with primary PTCA than with thrombolytic therapy.
255 ed cerebral artery than systemic intravenous thrombolytic therapy.
256 rculating leukocytes prior to treatment with thrombolytic therapy.
257  who are ineligible for standard intravenous thrombolytic therapy; however, its use is limited by the
258 the facilitated approach were mainly seen in thrombolytic-therapy-based regimens.
259 stroke and total stroke rates were higher in thrombolytic-therapy-containing facilitated regimens tha
260 ular and molecular level, only one drug, the thrombolytic tissue plasminogen activator (rt-PA), is ap
261                                              Thrombolytic tissue plasminogen activator may be a usefu
262              In combination studies with the thrombolytic, tissue plasminogen activator (tPA) using a
263                              The addition of thrombolytic to extracorporeal cardiopulmonary resuscita
264 tions associated with late administration of thrombolytic tPA.
265 lar hemorrhage volume (p=.001), but not with thrombolytic treatment (p=.05) or intracerebral hemorrha
266 wever, sex disparities persist in the use of thrombolytic treatment (with alteplase) and lipid testin
267 t included patients who received intravenous thrombolytic treatment after perfusion CT were identifie
268                                              Thrombolytic treatment did not affect long-term mortalit
269 therefore, encourage clinicians to: consider thrombolytic treatment for a wider variety of patients (
270 apy strategies has reset a course to advance thrombolytic treatment for acute stroke and promises to
271 herapy to improve the efficacy and safety of thrombolytic treatment for ischaemic stroke.
272 e likelihood of severe disability/death with thrombolytic treatment for SPAN-100-positive (AOR, 0.46
273 orts to accelerate hospital presentation and thrombolytic treatment in patients with stroke.
274 las who were referred for pharmacomechanical thrombolytic treatment in the intervention unit of the R
275 ted with perfusion CT to receive intravenous thrombolytic treatment more than 3 hours after symptom o
276                                              Thrombolytic treatment of ischemic stroke with tissue pl
277                      The long-term effect of thrombolytic treatment of pulmonary embolism (PE) is unk
278  with intermediate-risk PE and the effect of thrombolytic treatment on the persistence of symptoms or
279 y representing US clinical practice, earlier thrombolytic treatment was associated with reduced morta
280 ome measure was whether the decision to give thrombolytic treatment was correct, as determined by cen
281                                              Thrombolytic treatment with Plg activators significantly
282                                      Delayed thrombolytic treatment with recombinant tissue plasminog
283  of the diabody was compared to the standard thrombolytic treatment with recombinant tissue-type plas
284 s thrombotic occlusions usually resolve with thrombolytic treatment, such as alteplase.
285 atory T cell adoptive transfer may alleviate thrombolytic treatment-induced haemorrhage in stroke vic
286 w findings have significant implications for thrombolytic treatment.
287 sured the incidence of ICH following REP and thrombolytic treatment.
288 vant treatment for stroke patients receiving thrombolytic treatment.
289 ents, and (3) delay in obtaining consent for thrombolytic treatment.
290   Effectiveness of longer duration US and MB thrombolytic treatments were studied (n = 4), which sugg
291 Mild strokes have been poorly represented in thrombolytic trials and only a few series have reported
292          Secondary outcomes were the rate of thrombolytic use, 90-day functional outcomes (Barthel in
293                                       Use of thrombolytics was associated with lower all-cause mortal
294                                  Intravenous thrombolytics were used at an overall rate of 25% (31 [2
295                                              Thrombolytics were used at presentation in 19 (35%) pati
296 imaging and new clinical trials that combine thrombolytics with other pharmacological and interventio
297                            Activation of the thrombolytic zymogens may therefore allow for both direc
298                            Additionally, the thrombolytic zymogens plasminogen, urokinase, and plasma
299        Matriptase was also found to activate thrombolytic zymogens that have been shown to cleave and
300 e examined for their ability to activate the thrombolytic zymogens, and both resulted in activation o

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