Mukharya Amit, Patel Paresh U, Shenoy Dinesh, Chaudhary Shivang
Formulation Development (F&D) Department, Regulated Market, Cadila Pharmaceuticals limited, Ahmedabad, India ; Quality Assurance (QA) Department, S. K. Patel college of Pharmaceutical, Education & Research, Ganpat University, Mehsana, India.
Int J Pharm Investig. 2013 Jan;3(1):15-28. doi: 10.4103/2230-973X.108960.
Lacidipine (LCDP) is a very low soluble and highly biovariable calcium channel blocker used in the treatment of hypertension. To increase its apparent solubility and to reduce its biovariability, solid dispersion fluid bed processing technology was explored, as it produces highly dispersible granules with a characteristic porous structure that enhances dispersibility, wettability, blend uniformity (by dissolving and spraying a solution of actives), flow ability and compressibility of granules for tableting and reducing variability by uniform drug-binder solution distribution on carrier molecules.
Main object of this quality risk management (QRM) study is to provide a sophisticated "robust and rugged" Fluidized Bed Process (FBP) for the preparation of LCDP tablets with desired quality (stability) and performance (dissolution) by quality by design (QbD) concept.
THIS STUDY IS PRINCIPALLY FOCUSING ON THOROUGH MECHANISTIC UNDERSTANDING OF THE FBP BY WHICH IT IS DEVELOPED AND SCALED UP WITH A KNOWLEDGE OF THE CRITICAL RISKS INVOLVED IN MANUFACTURING PROCESS ANALYZED BY RISK ASSESSMENT TOOLS LIKE: Qualitative Initial Risk-based Matrix Analysis (IRMA) and Quantitative Failure Mode Effective Analysis (FMEA) to identify and rank parameters with potential to have an impact on In Process/Finished Product Critical Quality Attributes (IP/FP CQAs). These Critical Process Parameters (CPPs) were further refined by DoE and MVDA to develop design space with Real Time Release Testing (RTRT) that leads to implementation of a control strategy to achieve consistent finished product quality at lab scale itself to prevent possible product failure at larger manufacturing scale.
拉西地平(LCDP)是一种溶解度极低且生物变异性高的钙通道阻滞剂,用于治疗高血压。为了提高其表观溶解度并降低其生物变异性,人们探索了固体分散体流化床加工技术,因为该技术可生产具有特征性多孔结构的高度分散颗粒,这种结构可增强颗粒的分散性、润湿性、混合均匀性(通过溶解和喷雾活性成分溶液)、流动性和可压性,以便压片,并通过在载体分子上均匀分布药物-粘合剂溶液来降低变异性。
本质量风险管理(QRM)研究的主要目的是通过质量源于设计(QbD)理念,提供一种精密的“稳健且耐用”的流化床工艺(FBP),以制备具有所需质量(稳定性)和性能(溶出度)的LCDP片剂。
本研究主要致力于通过对FBP进行深入的机理理解来开发和放大该工艺,同时了解制造过程中涉及的关键风险,这些风险通过定性初始基于风险的矩阵分析(IRMA)和定量失效模式效应分析(FMEA)等风险评估工具进行分析,以识别并对可能影响过程中/成品关键质量属性(IP/FP CQAs)的参数进行排序。这些关键工艺参数(CPPs)通过实验设计(DoE)和多变量数据分析(MVDA)进一步优化,以开发具有实时放行检测(RTRT)的设计空间,从而实施控制策略,在实验室规模就实现一致的成品质量,以防止在更大的生产规模上可能出现的产品失败。