微粉吲哚美辛的灭菌

Karyna Krupianskaya, B. Croonenborghs, Annick Gillet, Bernard Appeltans, A. Meyers, Aaron DeMent, G. Van den Mooter, A. Van Schepdael, E. Haghedooren
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引用次数: 0

摘要

灭菌是制药行业的一个关键话题,因此“无菌”的术语是指缺乏活微生物。由于微生物可以在体内繁殖并引起潜在的致命感染,因此对肠道外产品进行消毒以防止这种情况的发生至关重要。近年来,70%-90%的潜在药物和40%的已上市药物显示出低溶解度。微粉化是一种广泛应用的提高溶解速度的方法。一小部分微粉产品需要灭菌,但目前缺乏关于灭菌对微粉产品影响的已发表的研究。本研究探讨了灭菌对消炎痛活性成分微粉的影响。范围内的灭菌方法是一种基于光子的方法,使用伽马辐射和一种基于气体的方法,使用二氧化氮气体。采用低温粉碎和喷雾干燥两种微粉技术对吲哚美辛进行了微粉化。采用不同的条件,对球磨机内的磨球数和充填程度进行了研究。对所有样品进行微粉化后的固体状态评估,只选择微粉化有效的样品进行伽马射线和二氧化氮灭菌。将活性药物成分储存在- 80°C,以常用的工业标准靶剂量25 kGy进行伽马辐照。二氧化氮灭菌在21°C,浓度为10 mg/L,相对湿度为30%,使用两个NO2脉冲进行。灭菌前后,采用高效液相色谱-紫外检测法对样品进行分析,检测吲哚美辛含量、峰纯度及杂质形成情况。与未微粉化的对照品相比,两种灭菌方法均能显著降低微粉化样品的含量,并增加杂质谱。非微粉样品经灭菌后无显著差异。可以观察到,微粉化的吲哚美辛样品表现出更多的降解,随后在用伽马射线和二氧化氮气体灭菌后更容易降解,因此需要评估微粉化与灭菌方法相结合的影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Sterilization of micronized indomethacin
Sterilization is a pivotal topic in the pharmaceutical industry, whereby the nomenclature of “sterile” refers to the absence of viable microorganisms. Since microorganisms can reproduce in the body and cause potentially fatal infections, it is critical to sterilize parenteral products to prevent this. In recent years, 70%–90% of potential drugs and 40% of marketed drugs have demonstrated a low solubility. Micronization is a widely spread approach to increase the dissolution rate. A subset of micronized products require sterilization, but published studies on the effects of sterilization on micronized products are currently lacking. The effect of sterilization on the micronized active pharmaceutical ingredient indomethacin was explored in this study. The sterilization methods in scope were one photon-based method using gamma irradiation and one gas-based method with nitrogen dioxide gas. Indomethacin was micronized using two micronization techniques, cryomilling and spray drying. Different conditions were used for cryomilling where the number of grinding balls in the ball mill and the degree of filling were varied. The solid state of all samples was evaluated after micronization, and only the effectively micronized samples were selected for sterilization with gamma rays and nitrogen dioxide. Gamma irradiation was performed with the active pharmaceutical ingredient stored at −80°C at a commonly used industry standard target dose of 25 kGy. Nitrogen dioxide sterilization took place at 21°C, a concentration of 10 mg/L, a relative humidity of 30% and using two NO2 pulses. Before and after sterilization, all samples were analyzed by high performance liquid chromatography with UV detection, whereby the assay of indomethacin was examined as well as the peak purity and the formation of impurities. In comparison to the non-micronized reference, both sterilization methods demonstrate a significant decrease of content of micronized samples and an increase of the impurity profile. The non-micronized sample showed no significant difference after sterilization. It could be observed that micronized indomethacin samples demonstrate more degradation and are subsequently more susceptible to degradation upon sterilization with gamma rays and nitrogen dioxide gas, driving towards the need for assessment of the micronization impact combined with sterilization approach.
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