输注泵输送蛋白质。

Q4 Pharmacology, Toxicology and Pharmaceutics
U Bremer, C R Horres, M L Francoeur
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引用次数: 9

摘要

当通过精确控制血浆水平的特定时间模式来优化治疗效果时,输液比口服给药、大剂量注射或多肽储运具有明显的优势。口服给药的局限性是众所周知的,尽管正在研究开发防止不稳定剂降解的载体系统,但吸收的差异不太可能满足精确控制的需要。当局部组织对药物产生反应时,从皮下或肌肉内植入物的仓库递送会出现困难的情况。在发生不良反应的情况下,移除储存库系统会带来额外的困难。除非药物半衰期较长或注射频繁,否则单次注射不能维持恒定的血浆水平。例如,需要每30-60分钟注射一次胰岛素,以接近连续输注所提供的血浆水平;这样频繁的注射在24小时的基础上是不现实的。对于新多肽的开发人员来说,肠外给药是进入市场最直接的途径。从定期注射到严格控制输注的步骤,与修改分子或载体以获得等效剖面相比,是一个合乎逻辑的进展。在表2中,对几种不同类型的可用于输注蛋白质的设备进行了比较。微电子技术在输液装置的小型化中发挥了重要作用,而且毫无疑问将继续发挥作用。微机械加工作为集成电路制造的副产品,也将在小型输液装置中得到应用。在未来,我们将拥有基于该技术的具有成本效益的一次性设备(Saaman等人,1994),这些设备是可编程的,因此可以适应每个个体的治疗需求(Horres, 1994)。我们还可以期待看到更多的闭环药物输送系统,其中生物传感器和输液设备相结合,以优化特定的治疗。近十年来在糖尿病患者中获得的严格血糖控制的积极结果可能预示着胰岛素泵的流行。另一方面,低成本、小型、易于使用的渗透动力系统即将上市;这些系统将使输液几乎和透皮贴剂一样方便。我们还将看到药物和设备的接口方式取得重大进展。预充和即用药物盒已被证明在外科和急诊医学中是有效的,并且可以大大改善大多数输液应用。预计编码、预填充的药盒或药袋将由预编程泵自动识别,以减少操作人员的劳动和输入错误。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Protein delivery with infusion pumps.

When a therapeutic effect is optimized by precise control of specific temporal patterns of plasma levels, infusion offers distinct advantages over oral administration, bolus injection, or depot delivery of polypeptides. The limitations of oral delivery are well known, and although research is under way into development of carrier systems that prevent degradation of labile agents, it is unlikely that the variances in absorption will meet the need for precise control. Depot delivery from subcutaneous or intramuscular implants presents a difficult situation when local tissue reactions to the agent sometimes occur. Removal of a depot system in the event of adverse reactions presents additional difficulties. Bolus injections are unable to sustain constant plasma levels unless the drug half-life is long or the injections are frequently administered. Insulin injections, for example, would be required every 30-60 minutes to approximate the plasma levels provided by a continuous infusion; such frequent injections would not be practical on a 24-hour basis. For the developer of new polypeptides, parenteral administration offers the most direct route to the marketplace. The step from periodic injections to tightly controlled infusion is a logical progression as compared with modification of the molecules or vehicles to obtain equivalent profiles. In Table II several different types of devices that can be used for infusion of proteins are compared. Microelectronics have played a major role in the miniaturization of infusion devices and undoubtedly will continue to do so. Micromachining, a spin-off technology of integrated circuit manufacture, will also find application in small infusion devices. In the future, we will have cost-effective disposable devices (Saaman et al., 1994) built on this technology that are programmable and thus can be adapted to meet each individual therapeutic need (Horres, 1994). We can also expect to see more closed-loop drug delivery systems where biosensors and infusion devices are combined to optimize a particular therapy. Recent positive results obtained in diabetics by a decade on tight glucose control may forecast a resurgence of popularity of insulin pumps. At the other end of the spectrum, low-cost, small, and simple-to-use osmotically powered systems are close to being marketed; these systems will make infusion almost as convenient as transdermal patches. We will also see major advances in how drugs and devices are interfaced. Prefilled and ready-to-use drug cartridges have proven to be efficient in surgical and emergency medicine and can greatly improve most infusion applications. It is anticipated that coded, prefilled cartridges or pouches will be automatically, recognized by preprogrammed pumps to reduce operator labor and entry error.

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