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新千年伊始肝素领域的最新进展。

An update on heparins at the beginning of the new millennium.

作者信息

Fareed J, Hoppensteadt D A, Bick R L

机构信息

Department of Pathology and Pharmacology, Loyola University Medical Center, Maywood, Illinois 60153, USA. jfareed.luc.edu.

出版信息

Semin Thromb Hemost. 2000;26 Suppl 1:5-21. doi: 10.1055/s-2000-9498.

DOI:10.1055/s-2000-9498
PMID:11011802
Abstract

Unfractionated heparin has enjoyed the sole anticoagulant status for almost half a century. Besides an effective anticoagulant, this drug has been used in several additional indications. Despite the development of newer anticoagulant drugs, unfractionated heparin has remained the drug of choice for surgical anticoagulation and interventional cardiology. In the area of hematology and transfusion medicine, unfractionated heparin has continued to play a major role as an anticoagulant drug. The development of low-molecular-weight heparins (LMWHs) represents a refinement for the use of heparin. These drugs represent a class of depolymerized heparin derivatives with a distinct pharmacologic profile that is largely determined by their composition. These drugs produce their major effects by combining with antithrombin and exerting antithrombin and anti-Xa inhibition. In addition, the LMWHs also increase non-antithrombin-dependent effects such as TFPI release, modulation of adhesion molecules, and release of profibrinolytic and antithrombotic mediators from the blood vessels. The cumulative effects of each of the different LMWHs differ and each product exhibits a distinct profile. Initially these agents were developed for the prophylaxis of postsurgical deep-vein thrombosis. However, at this time these drugs are used not only for prophylaxis, but also for the treatment of thrombotic disorders of both the venous and arterial type. To a large extent, the LMWHs have replaced unfractionated heparin in most subcutaneous indications. With the use of these refined heparins, outpatient anticoagulant management has gone through a dramatic evolution. For the first time, patients with thrombotic disorders can be treated in an outpatient setting. Thus, the introduction of LMWHs represents a major advance in improving the use of heparin. The development of the oral formulation of heparin and LMWHs also provides an important area that may impact on the use of heparin and LMWHs. The increased awareness of heparin-induced thrombocytopenia has necessitated the development of newer methods to identify patients at risk of developing this catastrophic syndrome. Furthermore, a strong interest has developed in alternate drugs or the management of patients with this syndrome. Despite the development of alternate anticoagulants that are mostly antithrombin derived (hirudins, hirulog), these agents have failed to provide similar clinical outcome as heparin in many indications. However, antithrombin drugs are useful in the anticoagulant management of heparin-compromised patients. The FDA has approved a recombinant hirudin (Refludan) and a synthetic antithrombin agent, argatroban (Novastan), for this indication. The development of synthetic heparin pentasaccharide and anti-Xa agents may have an impact on the prophylaxis of thrombotic disorders. However, these monotherapeutic agents do not mimic the polytherapeutic actions of heparin. Furthermore, these agents do not inhibit thrombin. Heparin and LMWHs are capable of inhibiting not only factor Xa and thrombin, but other serine proteases in the coagulation network. The only way the newer drugs can mimic the actions of heparin is in combination modalities (polytherapeutic approaches). It has been suggested that newer antiplatelet drugs also exhibit anticoagulant actions. While these drugs may exhibit weak effects on thrombin generation, none of the currently available antiplatelet drugs exhibit any degree of antithrombin actions. It is likely that heparins synergize or augment the effects of the new antiplatelet drugs. Currently, combination approaches are used to anticoagulate patients in these studies. The dosage of heparins has been arbitrarily reduced. This may not be an optimal procedure. Additional clinical studies are needed to study these combinations where the alterations of these drugs are compared. Such combinations will require newer monitoring approaches. The development of oral thrombin agents, GP IIb

摘要

普通肝素在近半个世纪里一直占据着唯一抗凝剂的地位。除了是一种有效的抗凝剂外,这种药物还被用于其他多种适应症。尽管有了更新的抗凝药物,但普通肝素仍然是手术抗凝和介入心脏病学的首选药物。在血液学和输血医学领域,普通肝素作为一种抗凝药物继续发挥着重要作用。低分子量肝素(LMWHs)的开发是肝素应用的一项改进。这些药物是一类解聚的肝素衍生物,具有独特的药理学特征,这在很大程度上取决于它们的组成。这些药物通过与抗凝血酶结合并发挥抗凝血酶和抗Xa抑制作用来产生主要效果。此外,低分子量肝素还增加非抗凝血酶依赖性作用,如组织因子途径抑制物(TFPI)释放、黏附分子调节以及从血管释放纤溶酶原激活物和抗血栓形成介质。每种不同的低分子量肝素的累积效应不同,每种产品都有独特的特征。最初,这些药物是为预防术后深静脉血栓形成而开发的。然而,目前这些药物不仅用于预防,还用于治疗静脉和动脉类型的血栓性疾病。在很大程度上,低分子量肝素已在大多数皮下给药适应症中取代了普通肝素。随着这些精制肝素的使用,门诊抗凝管理经历了巨大的变革。首次可以在门诊环境中治疗血栓性疾病患者。因此,低分子量肝素的引入是肝素应用改进方面的一项重大进展。肝素和低分子量肝素口服制剂的开发也是一个可能影响肝素和低分子量肝素使用的重要领域。对肝素诱导的血小板减少症认识的提高使得有必要开发新的方法来识别有发生这种灾难性综合征风险的患者。此外,人们对替代药物或该综合征患者的管理产生了浓厚兴趣。尽管开发了主要基于抗凝血酶衍生的替代抗凝剂(水蛭素、hirulog),但在许多适应症中,这些药物未能提供与肝素相似的临床结果。然而,抗凝血酶药物在肝素治疗受限患者的抗凝管理中是有用的。美国食品药品监督管理局(FDA)已批准一种重组水蛭素(Refludan)和一种合成抗凝血酶药物阿加曲班(Novastan)用于此适应症。合成肝素五糖和抗Xa药物的开发可能会对血栓性疾病的预防产生影响。然而,这些单一治疗药物并不能模拟肝素的多种治疗作用。此外,这些药物不抑制凝血酶。肝素和低分子量肝素不仅能够抑制因子Xa和凝血酶,还能抑制凝血网络中的其他丝氨酸蛋白酶。新药物能够模拟肝素作用的唯一途径是联合用药方式(多种治疗方法)。有人提出,新型抗血小板药物也表现出抗凝作用。虽然这些药物可能对凝血酶生成有微弱影响,但目前可用的抗血小板药物均未表现出任何程度的抗凝血酶作用。肝素很可能与新型抗血小板药物协同或增强其作用。目前,在这些研究中采用联合用药方法来对患者进行抗凝。肝素的剂量已被随意降低。这可能不是一个最佳程序。需要进行更多的临床研究来研究这些联合用药情况,比较这些药物的变化。这种联合用药将需要更新的监测方法。口服凝血酶药物、糖蛋白IIb的开发……

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