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β-肾上腺素受体阻断药的临床药代动力学

Clinical pharmacokinetics of beta-adrenoreceptor blocking drugs.

作者信息

Johnsson G, Regàrdh C G

出版信息

Clin Pharmacokinet. 1976;1(4):233-63. doi: 10.2165/00003088-197601040-00001.

DOI:10.2165/00003088-197601040-00001
PMID:13958
Abstract

All beta-adrenoreceptor blocking drugs seem to be fairly rapidly and completely absorbed from the gastro-intestinal tract. The rate of absorption, however, appears to be lower in elderly patients and possibly also in patients with renal failure than in younger patients. The extent of bioavailability varies considerably between different beta-blockers. Some of these drugs(e.g. alprenolol and propranolol) have a low extent of bioavailability due to a high first-pass elimination effect, while pindolol and practolol for example are in influenced very little by this effect. However, as some beta-blockers from active metabolites, the bioavailability calculated as the ratio between the area under the plasma concentration time curve of unchanged drug after oral and intravenous administration does not give an accurate estimation of the fraction of the biologically active dose reaching the systemic circulation. The beta-blockers so far studied are rapidly distributed in the body. The t1/2 of distribution ranges between 5 to 30 minutes. The apparent volume of distribution varies 3- to 4-fold between the compounds but in all cases the apparent volume of distribution exceeds the physiological body space. In patients with impaired liver function an increase of the volume of distrubution of propranolol has been found. The beta-blockers are relatively rapidly eliminated from the body and most of them have an elimination half-life between 2 to 4 hours. For atenolol, practolol and sotalol higher values have been reported. The most lipophilic beta-blockers are almost completely metabolised in the liver, wheras those of lower lipophilicity are mainly excreted via the kidneys. Impraired liver and kidney function have been found to significantly influence the rate of elimination of those beta-blockers eliminated via the insufficient organ of elimination. Numerous investigators have shown that the beta-blocking effect is linearly related to the logarithm of the plasma concentration. In spite of this relationship, it is difficult from mean data to predict the individual plasma concentration which is necessary for a certain degree of beta-blockade. This might be due to variations in the quantitative formation of active metablolites, individual differences in the plasma protein binding and rather flat plasma level-response curves. Also with respect to the therapeutic effect, the plasma levels vary considerably between individuals. This limits the value of determination of plasma concentrations in order to adjust the therapeutic dose. Our recommendation is that these facilities should be utilised in selected patient groups, eg. those who have a poor therapeutic response to a beta-blocker although the dose is high, and those patient with impaired renal or liver function. The duration of beta-blockade is dose-dependent since the pharmacological effect declines with a constant rate (zero-order kinetics) within relatively wide dosage intervals...

摘要

所有β-肾上腺素能受体阻断药似乎都能较快且完全地从胃肠道吸收。然而,老年患者以及可能还有肾衰竭患者的吸收速率似乎低于年轻患者。不同β受体阻滞剂的生物利用度差异很大。其中一些药物(如阿普洛尔和普萘洛尔)由于首过消除效应高,生物利用度较低,而例如吲哚洛尔和美多心安受此效应影响很小。然而,由于一些β受体阻滞剂会产生活性代谢产物,口服和静脉给药后以原形药物血浆浓度-时间曲线下面积之比计算的生物利用度并不能准确估计到达体循环的生物活性剂量的分数。迄今为止研究的β受体阻滞剂在体内分布迅速。分布半衰期在5至30分钟之间。不同化合物的表观分布容积相差3至4倍,但在所有情况下,表观分布容积都超过生理空间。在肝功能受损的患者中,已发现普萘洛尔的分布容积增加。β受体阻滞剂从体内消除相对较快,大多数的消除半衰期在2至4小时之间。阿替洛尔、美多心安和索他洛尔的半衰期报告值较高。亲脂性最强的β受体阻滞剂几乎完全在肝脏代谢,而亲脂性较低的则主要通过肾脏排泄。已发现肝肾功能受损会显著影响那些通过功能不足的排泄器官消除的β受体阻滞剂的消除速率。众多研究人员表明,β受体阻断作用与血浆浓度的对数呈线性关系。尽管存在这种关系,但根据平均数据很难预测达到一定程度β受体阻断所需的个体血浆浓度。这可能是由于活性代谢产物的定量形成存在差异、血浆蛋白结合的个体差异以及血浆水平-反应曲线较为平坦。就治疗效果而言,个体之间的血浆水平也有很大差异。这限制了通过测定血浆浓度来调整治疗剂量的价值。我们的建议是,这些检测手段应在特定患者群体中使用,例如那些尽管剂量很高但对β受体阻滞剂治疗反应不佳的患者,以及肝肾功能受损的患者。β受体阻断的持续时间取决于剂量,因为在相对宽的剂量间隔内,药理效应以恒定速率(零级动力学)下降……

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