Cardiovascular disease, and in particular ischemic heart disease, is the main cause of morbidity and mortality worldwide today (1). Myocardial infarction (MI) presents the most serious clinical entity through its short-term life threatening involvement.
The many advances in the management of IDM during the acute phase, namely the increasingly frequent and effective use of reperfusion means (angioplasty and thrombolysis) as well as pharmacological progress, in particular, the management of anti-thrombotic treatment has enabled a significant reduction in intra-hospital mortality, in the medium and long term (2). In fact, the mortality rate dropped from 25-30% before the creation of the cardiac intensive care units (ICUS) around the 1960s, to around 16% in the 1980s and reaching 4 to 6% today. In the latest data from the French FAST MI 2015 register (French Registry of Acute ST-Elevation or Non-ST-elevation Myocardial Infarction) mortality was 2.8% in hospital (3) and 5.3% at 6 months (4). Nevertheless, mortality rates diverge from one register to another and are generally higher compared to randomized controlled clinical trials.
In our country, due to the aging of the Tunisian population (currently the oldest population in Africa), as well as the rise in the prevalence of cardiovascular risk factors (5), the incidence of IDM is clearly increasing. However, our local specificities concerning the management of this pathology and the intra-hospital mortality which results from it, remain little described despite the importance of these data in the development of personalized algorithms and the improvement of the quality of this support.
the management of CAD ST + in the public sector poses more and more efficiency problems and moves away from international recommendations in our country, an assessment of our national situation is necessary.
The objectives of the study are, primary, the incidence of new cases that consult the emergency room for CAD ST + and the treatment delivered to the emergency room, in particular the nature of the treatment for obstruction (primary angioplasty or thrombolysis). Secondary, the evaluation of hospital complications and the future of patients on D30 and after one year from the inclusion's day.

开始日期2018-10-17

申办/合作机构

Hôpital Universitaire Sahloul

100 项与那沙普酶相关的临床结果

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100 项与那沙普酶相关的转化医学

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100 项与那沙普酶相关的专利（医药）

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项与那沙普酶相关的文献（医药）

2003-01-01·Yakushigaku zasshi

[A 50-year history of new drugs in Japan-the development and trends of hemostatics and antithrombotic drugs].

Article

作者: Akimoto, Takeshi ; Ozawa, Hikaru ; Abiko, Yasushi

The developments and trends of hemostatic and antithrombotic drugs in Japan were investigated chronologically for the last 50 years after the 2nd World War. 1. Hemostatic drugs are classified into three groups ; capillary stabilizers, blood coagulants and antifibrinolytics. l) As to capillary stabilizers, flavonoid (rutin, 1949), adrenochrome derivative (carbazochrome, 1954) and conjugated estrogen (Premarin, 1964) were introduced therapeutically. Especially, the soluble types of adrenochrome compounds (Adona 1956, S-Adchnon, 1962) were devised and used widely in Japan. 2) Drugs concerning blood coagulation, thrombin, introduced in 1953, and hemocoagulase, a snake venom introduced in 1966, were used clinically. V.K. groups producing various coagulation factors were introduced as V.K1 (Phytonadione, 1962) and V.K2 (rnenatetrenone,1972), and they were admitted in "The Japanese Pharmacopoeia"editions 8 and 14, respectively). 3) Regarding antifibrinolytic drugs, Japanese researchers have made remarkable contributions. e-Aminocapronic acid (Ipsilon, 1962) and tranexamic acid (Transamin, 1965) were developed and used for various abnormal bleedings or hemorrhage associated with plasmin over-activation. tranexamic acid also proved to suppress inflammations of the throat such as tonsillitis, pharyngitis or laryngitis. 2. Antithrombotic drugs are also divided into three groups; anticoagulants, antiplatelet drugs and fibrinolytics.1) The anticoagulants used therapeutically by injection are heparins (Na-salt, 1951; Ca-salt, 1962) and low-molecular-weight heparins such as dalteparin (1992), parnaparin (1994) and reviparin (1999). The low molecule compounds are superior to the original heparins in reducing the risk of bleeding. As oral anticoagulants, coumarin derivatives, dicumarol (1950), ethylbiscoumacetate (1954), phenylindandione (1956) and warfarin (1962) are known. Warfarin potassium is the main drug for oral therapy of thromboembolism lately. Gabexate mesilate (1989) and nafamostat mesilate (1989) were developed in Japan and used for DIC and acute pancreatitis to inhibit protease enzymes. Argatroban is a unique antithrombin product developed by Japanese researchers in 1990, and is used for vascular or cerebral thrombosis. After noticing in 1968 that aspirin inhibits platelet aggregation and prevents myocardial infraction, projects for developing antiplatelet drugs were initiated worldwide. Ticlopidine, originally developed in France, was introduced in 1981 and prevailed widely in Japan for reducing the risk of thrombotic stroke. Aspirin itself was recognized by the FDA (USA) as an antithrombotic drug in 1988, and was also approved by Japanese authorities in 2000. PGE1 clathrate compounds have also been developed as antiplatelet drugs; alprostadil alfadex for injection (1979), and limaprost alfadex for oral use (1988). The PGI2 product, beraprost sodium, for oral use followed them in 1992. Other antiplatelet drugs with unique mechanisms explored in Japan: Ozagrel (1988), which inhibits TXA2 synthetase, cilostazol (1988), which inhibits cAMP phosphodiesterase, and sarpogrelate (1993), which blocks 5HT in platelets, are the notable drugs in this field. Ethyl icosapentate, from fish oil, is available for antiplatelet therapy. Concerning the fibrinolytic system, plasminogen activators are useful for thromboembolism. The streptokinase from bacterial origin developed in the USA and Europe was not introduced, and urokinase (1965) was the first plasminogen activator developed in Japan. Then tissue plasminogen activators (t-PA) tisokinase (cell culture, 1991), alteplase (genetical recombination, 1991), nateplase (genetical recombination, 1996), monteplase (1998) and pamiteplase (1998) were developed and approved for acute myocardial infarction. Nasaruplase (prourokinase, cell culture,1991) was also approved for the same indication. While the development of the hemostatic drugs ceased in the 1960s, avid project studies for antithrombotic drugs including fibrinolytics began in the 1980s and are progressing now towards new molecular targets. This may be due to the increasing tendency of cardiovascular thromboembolic diathesis in Japan. (The figures in parentheses are the years approved by the Japanese Ministry of Health, Labor and Welfare.)

1996-01-01·Nippon Ganka Gakkai zasshi

[Medical treatment for experimental retinal vein occlusion--thrombolytic effect of nasaruplase].

Article

作者: Katoh, C ; Sakuraba, T ; Yoshimoto, H ; Suzuki, Y ; Matsumoto, M ; Mizutani, H

The anti-thrombolytic effect of urokinase (UK), nasaruplase, and argatroban was studied using an experimental rabbit model of retinal vein occlusion (RVO). Experimental RVO was induced by transadventitial thrombin instillation. Five or fourteen days after thrombin application, the rabbits were injected with gelatin-fluorescein sodium and their eyeballs were enucleated for microscopic observation and flat preparation of the retina. Occlusion of retinal vessels was found to be less in number and distribution in the nasaruplase group than in the control group. On microscopic observation, the retinal arteries and veins of the nasaruplase group showed a vascular subendothelial space formation which suggested a process of thrombogenesis and thrombolysis in the space. The coefficiency of beraprost sodium, aspirin, and ozagrel hydrochloride to UK therapy was studied, but there was no significant difference between these groups and the control group with no after-treatment (the UK group). This result shows the effectiveness of nasaruplase for the thrombolytic therapy of RVO.

1995-01-01·Japanese Heart Journal

Low Incidence of Hemorrhagic Infarction Following Coronary Reperfusion with Nasaruplase in a Canine Model of Acute Myocardial Infarction. Comparison with Recombinant t-PA.

Article

作者: KIDO, Hideaki ; HAYASHI, Kazutaka ; WATANABE, Masahiro ; UCHIDA, Takeshi

An examination was made of the coronary thrombolytic effects of nasaruplase in a canine model of acute myocardial infarction. The model was produced by selective injection of an artificial thrombus into the coronary artery stenosed by laser ablation. Intravenous nasaruplase (8 U/kg/min) showed an equivalent thrombolytic effect to a recombinant tissue-type plasminogen activator (rt-PA, 10,000 IU/kg/min) as assessed by reperfusion rate (78.6 versus 79.2%) and reperfusion time (37.4 +/- 5.2 versus 37.0 +/- 2.5 min). Nasaruplase decreased the plasma alpha 2-plasmin inhibitor (alpha 2-PI) level by 28% immediately after reperfusion, but hardly altered fibrinogen or plasmin-alpha 2-plasmin inhibitor complex (PIC) levels. By contrast, rt-PA significantly decreased plasma alpha 2-PI and fibrinogen levels, by 84% and 92% respectively, and, increased PIC level more than 70-fold. Hemorrhagic infarction occurred in 2 of 14 animals in the nasaruplase group and in 9 of 19 animals in the rt-PA group. In these animals, significant correlations were found between the ratio of the hemorrhagic infarction area to total infarct area and the plasma alpha 2-PI (r = -0.740, p < 0.05) or fibrinogen (r = -0.798, p < 0.05) concentrations, as well as between the recovery rate of left ventricular regional wall motion and the plasma alpha 2-PI (r = 0.924, p < 0.01) or fibrinogen (r = 0.864, p < 0.01) concentrations. It is concluded that nasaruplase is a potent thrombolytic agent which preserves left ventricular function with a lesser rate of hemorrhagic infarction than rt-PA. Further, nasaruplase administration results in recovery of left ventricular regional wall motion and systolic function, such as Vmax.

100 项与那沙普酶相关的药物交易

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