Duchek Jan, Havasi Balazs
Sandoz Development Center, Austria; and.
Novartis Technical Operations/Aseptics, Austria
PDA J Pharm Sci Technol. 2018 Nov-Dec;72(6):608-625. doi: 10.5731/pdajpst.2017.008292. Epub 2018 May 31.
Pharmacopeias recognize particulate matter as a common phenomenon. The current regulatory requirements relating to particulate matter in parenterals state that solutions for injections or infusions are clear and "practically" (or "essentially") free from ("readily detectable") particles when examined under defined conditions of illumination. Pharmaceutical companies are required to know their processes and have them under control. In order to control and reduce the potential influx of particulate matter, Novartis Technical Operations in Unterach developed a particle life-cycle program that involved an establishment of a dedicated particle laboratory operating under clean room conditions. The analytical capabilities of this particle laboratory were crucial for the characterization of particles and supported identification of potential sources of particulate matter. After implementing this program and respective actions, product and process understanding significantly improved. This resulted in a decrease of reject rates, AQL (Acceptable Quality Limit) failures, and corresponding batch rejections, thereby increasing the availability of Novartis products from Unterach for the patients. The main objective of this article is to show the detailed particle characterization approach including Quality by Design (QbD), methods, and equipment. Examples from projects and particulate matter investigations are presented. Parenteral formulations should not contain particulate matter. However, as external contamination as well as formation of particles during manufacturing cannot be entirely excluded, pharmaceutical companies use visual inspection and AQLs to monitor occurrence of particles. To ensure patient safety, Novartis Technical Operation in Unterach established a particle-free analytical laboratory with a focus on particle characterization and root cause analysis of particle formation. The ultimate goal is to reduce occurrence of particles in formulations altogether, and increase process understanding. The approach toward particle characterization adopted at Novartis Technical Operations in Unterach is presented in the article.
各国药典均认可颗粒物质是一种常见现象。当前关于注射剂中颗粒物质的监管要求规定,注射剂或输液剂溶液应澄清,并且在规定的光照条件下检查时“实际上”(或“基本上”)无(“易于检测到的”)颗粒。制药公司需要了解其生产工艺并加以控制。为了控制和减少颗粒物质的潜在流入,位于翁特阿赫的诺华技术运营部门制定了一个颗粒生命周期计划,其中包括建立一个在洁净室条件下运行的专用颗粒实验室。这个颗粒实验室的分析能力对于颗粒的特性表征至关重要,并有助于识别颗粒物质的潜在来源。实施该计划及相应措施后,对产品和工艺的理解有了显著提升。这导致拒收率、可接受质量限(AQL)不合格率以及相应批次的拒收情况减少,从而提高了诺华翁特阿赫工厂生产的产品对患者的可及性。本文的主要目的是展示详细的颗粒特性表征方法,包括质量源于设计(QbD)、方法和设备。文中还列举了项目实例和颗粒物质调查情况。注射用制剂不应含有颗粒物质。然而,由于无法完全排除外部污染以及生产过程中颗粒的形成,制药公司采用目检和AQL来监测颗粒的出现情况。为确保患者安全,诺华翁特阿赫技术运营部门建立了一个无颗粒分析实验室,重点关注颗粒特性表征和颗粒形成的根本原因分析。最终目标是完全减少制剂中颗粒的出现,并增进对生产工艺的理解。本文介绍了诺华翁特阿赫技术运营部门采用的颗粒特性表征方法。