Design-of-experiment approach to quantify the effect of nano-sized silica on tableting properties of microcrystalline cellulose to facilitate direct compression tableting of binary blend containing a low-dose drug

压片 微晶纤维素 材料科学 压实 复合材料 析因实验 压缩(物理) 化学工程 纤维素 数学 统计 工程类
作者
Mohamed H. Fayed,Mohammed F. Aldawsari,Amer S. Alali,Ahmed Alsaqr,Bjad K. Almutairy,Alhussain Aodah,Hesham M. Tawfeek,El‐Sayed Khafagy,Doaa A. Helal
出处
期刊:Journal of Drug Delivery Science and Technology [Elsevier BV]
卷期号:68: 103127-103127 被引量:12
标识
DOI:10.1016/j.jddst.2022.103127
摘要

There are challenges to implementing high-speed direct compression tableting for poor flow, low-density cohesive powder. Thus, excipients with adequate flowability and bulk density are desired to facilitate this process. As a major novelty, the effect of nano-sized silica (Aerosil 200®) on the extent of flow and packing properties enhancement was evaluated. A 32 full-factorial design was applied to investigate the influence of silica load (X1; 0.5–5%) and mixing time (X2; 1–10 min) as independent variables on flow, bulk density and compaction properties of microcrystalline cellulose (MCC). Optimized MCC-silica blend was subsequently used in tableting of Albuterol Sulphate as a model low-dose drug. Regression analysis demonstrated significant (p ≤ 0.05) effect of X1 and X2 on tableting properties of MCC with pronounced effect of X1. Besides, nano-sized silica exhibited a significant improve in flowability, bulk density and compaction properties of MCC. However, at higher silica loading (over 2.75%) a reduction in flow and compaction was observed. The superior performance of MCC was achieved at silica load of (2.40%) and mixing time of (9.66 min). Moreover, the optimized blend could be directly compressed into tablets with excellent content uniformity, adequate mechanical strength, fast disintegration (63 ± 0.64 s) and dissolution (>90% after 5 min) that leads to rapid response. Ultimately, dry coating of poor flow-low density powder using nano-sized silica is a promising approach to improve the content uniformity of low-dose tablets prepared by high speed direct compression tableting.
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