Comparison of Hydroxypropylcellulose and Hot-Melt Extrudable Hypromellose in Twin-Screw Melt Granulation of Metformin Hydrochloride: Effect of Rheological Properties of Polymer on Melt Granulation and Granule Properties

Macromol Pub Date : 2021-12-23 DOI:10.3390/macromol2010001
Amol Batra, Feng-yuan Yang, Michael Kogan, A. Sosnowik, C. Usher, Eugene W. Oldham, Ningyi Chen, Kamaru Lawal, Yunxia Bi, T. Dürig
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引用次数: 4

Abstract

High-molecular-weight hypromellose (HPMC) and hydroxypropyl cellulose (HPC) are widely known, extended-release polymers. Conventional high-molecular-weight HPMCs are preferred in extended-release applications but not widely used in twin-screw melt granulation due to processability difficulties at low operating temperatures and potential drug degradation if high processing temperatures are used. Conversely, high-molecular-weight grade HPC (Klucel®) can be used in melt granulation processes. The purpose of this study was to evaluate the processability and dissolution behavior of HPC GXF ((Klucel® GXF) and a recently introduced type of hot-melt extrudable HPMC (Affinisol®) in extended-release metformin hydrochloride formulations using twin-screw melt granulation. Powder blends were prepared with 75% w/w metformin HCl and 25% w/w polymeric binder. Blends were granulated at processing temperatures of 160, 140, 120 and 100 °C. HPMC HME 4M (Affinisol® 4M) provided a fine powder, indicating minimum granulation at processing temperatures lower than 160 °C, and the tablets obtained with these granules capped during tableting. In contrast, acceptable tablets could be obtained with HPC GXF at all processing temperatures. Rheological studies including capillary rheometry to measure steady shear rate viscosity, and rotational rheometry to obtain time and temperature superposition data, showed that HPC GXF had a greater thermoplasticity than HPMC HME 4M, which made granulation possible with HPC GXF at low temperatures. Tablets compressed with granules obtained at 160 °C with both binders showed comparable dissolution profiles. High-molecular-weight HPC GXF provided a better processability at low temperatures and adequate tablet strength for the melt granulation of metformin HCl.
羟丙纤维素与热熔挤压羟丙纤维素在盐酸二甲双胍双螺杆熔融造粒中的比较:聚合物流变性能对熔融造粒和造粒性能的影响
高分子量羟丙基纤维素(HPMC)和羟丙基纤维素(HPC)是众所周知的缓释聚合物。传统的高分子量hpmc在缓释应用中是首选的,但由于在低操作温度下的可加工性困难以及如果使用高处理温度可能会导致药物降解,因此在双螺杆熔体造粒中没有广泛应用。相反,高分子量级HPC (Klucel®)可用于熔体造粒过程。本研究的目的是评估HPC GXF (Klucel®GXF)和最近推出的热熔挤压型HPMC (Affinisol®)在盐酸二甲双胍缓释制剂中的加工性能和溶出行为。以75% w/w的二甲双胍和25% w/w的聚合物为粘结剂制备粉末共混物。共混物在160、140、120和100℃的处理温度下造粒。HPMC HME 4M (Affinisol®4M)提供了一种细粉末,表明在低于160°C的加工温度下最小造粒,并且在压片期间用这些颗粒获得的片剂封盖。相比之下,在所有加工温度下,HPC GXF均可获得合格的片剂。流变学研究,包括测量稳定剪切速率粘度的毛细管流变学和获得时间和温度叠加数据的旋转流变学,表明HPC GXF比HPMC HME 4M具有更大的热塑性,这使得HPC GXF可以在低温下造粒。用两种粘合剂在160℃下得到的颗粒压缩后的片剂显示出相似的溶出谱。高分子量HPC GXF为二甲双胍的熔融造粒提供了较好的低温加工性能和足够的片剂强度。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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CiteScore
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