Effect of Physical Properties and Chemical Substitution of Excipient on Compaction and Disintegration Behavior of Tablet: A Case Study of Low-Substituted Hydroxypropyl Cellulose (L-HPC)

Macromol Pub Date : 2022-03-04 DOI:10.3390/macromol2010007
Saurabh M Mishra, Andreas Sauer
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引用次数: 4

Abstract

As final attributes of dosage form largely depend on the properties of excipients used, understanding the effect of physicochemical properties of excipients is important. In the present study, six grades of L-HPC with varying degrees of particle size and hydroxypropyl content and the influence of the grade on compaction as well as disintegration behavior were studied. All grades of L-HPC were compressed at different compression loads to achieve different tablet porosity. Compressibility and compactibility of L-HPC grades were evaluated using a modified Heckel equation and percolation model. Further effects of particle size and hydroxypropyl content of L-HPC on tablet porosity and disintegration time were evaluated using a 32 full-factorial design. From compaction studies, it was found that compressibility of L-HPC largely depends upon the particle size with lower particle size grade showing lower compressibility. Whereas consolidation/bonding behavior of L-HPC is independent of particle size and % hydroxypropyl content. By factorial design, it was found that particle size and % hydroxypropyl content have a significant effect on the disintegration behavior of L-HPC. It was found that smaller particle sizes and higher hydroxypropyl content of L-HPC show longer disintegration time. Thus, careful consideration of excipients selection should be made to achieve desired quality attribute of the product.
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赋形剂的物理性质和化学取代对片剂压实和崩解行为的影响——以低取代羟丙基纤维素(L-HPC)为例
由于剂型的最终属性很大程度上取决于所使用的赋形剂的性质,因此了解赋形剂的物理化学性质的影响是很重要的。本文研究了6种不同粒径和羟丙基含量的L-HPC,研究了不同粒径和羟丙基含量对L-HPC压实和崩解性能的影响。在不同的压缩载荷下压缩所有等级的L-HPC,以获得不同的片剂孔隙率。采用改进的Heckel方程和渗流模型对L-HPC等级的压缩性和致密性进行了评价。采用32全因子设计评价L-HPC粒径和羟丙基含量对片剂孔隙度和崩解时间的影响。压实研究发现,L-HPC的可压缩性在很大程度上取决于粒径,粒径等级越低,可压缩性越低。而L-HPC的固结/键合行为与颗粒大小和%羟丙基含量无关。通过析因设计,发现粒径和%羟丙基含量对L-HPC的崩解行为有显著影响。结果表明,粒径越小、羟丙基含量越高的L-HPC,其崩解时间越长。因此,应仔细考虑辅料的选择,以达到所期望的产品质量属性。
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