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使用非水共溶剂系统进行冻干的实际操作

Practical aspects of lyophilization using non-aqueous co-solvent systems.

作者信息

Teagarden Dirk L, Baker David S

机构信息

Department of Sterile Products Development, Pharmacia Corporation, 7000 Portage Road, 49001-0199, Kalamazoo, MI 49001-0199, USA.

出版信息

Eur J Pharm Sci. 2002 Mar;15(2):115-33. doi: 10.1016/s0928-0987(01)00221-4.

DOI:10.1016/s0928-0987(01)00221-4
PMID:11849908
Abstract

Non-aqueous co-solvent systems have been evaluated for their potential use in the freeze-drying of pharmaceutical products. The advantages of using these non-aqueous solvent systems include: increased drug wetting or solubility, increased sublimation rates, increased pre-dried bulk solution or dried product stability, decreased reconstitution time, and enhancement of sterility assurance of the pre-dried bulk solution. Conversely, the potential disadvantages and issues which must be evaluated include: the proper safe handling and storage of flammable and/or explosive solvents, the special facilities or equipment which may be required, the control of residual solvent levels, the toxicity of the remaining solvent, qualification of an appropriate GMP purity, the overall cost benefit to use of the solvent, and the potential increased regulatory scrutiny. The co-solvent system that has been most extensively evaluated was the tert-butanol/water combination. The tert-butanol possesses a high vapor pressure, freezes completely in most commercial freeze-dryers, readily sublimes during primary drying, can increase sublimation rates, and has low toxicity. This co-solvent system has been used in the manufacture of a marketed injectable pharmaceutical product. When using this solvent system, both formulation and process control required optimization to maximize drying rates and to minimize residual solvent levels at the end of drying. Other co-solvent systems which do not freeze completely in commercial freeze-dryers were more difficult to use and often resulted in unacceptable freeze-dried cakes. Their use appears limited to levels of not more than 10%.

摘要

非水共溶剂系统已被评估其在药品冷冻干燥中的潜在用途。使用这些非水溶剂系统的优点包括:提高药物润湿性或溶解度、提高升华速率、提高预干燥原液或干燥产品的稳定性、缩短复溶时间以及增强预干燥原液的无菌保证。相反,必须评估的潜在缺点和问题包括:易燃和/或易爆溶剂的正确安全处理和储存、可能需要的特殊设施或设备、残留溶剂水平的控制、残留溶剂的毒性、适当的GMP纯度鉴定、使用溶剂的总体成本效益以及潜在增加的监管审查。评估最为广泛的共溶剂系统是叔丁醇/水组合。叔丁醇具有高蒸气压,在大多数商用冷冻干燥机中能完全冻结,在一次干燥过程中易于升华,可提高升华速率,且毒性低。该共溶剂系统已用于一种市售注射用药品的生产。使用该溶剂系统时,配方和工艺控制都需要优化,以在干燥结束时最大化干燥速率并最小化残留溶剂水平。其他在商用冷冻干燥机中不能完全冻结的共溶剂系统更难使用,并且常常导致冻干饼不合格。它们的使用比例似乎限制在不超过10%。

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