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木质素作为含氯唑沙宗的药物片剂中的生物活性添加剂。

Lignin as a Bioactive Additive in Chlorzoxazone-Loaded Pharmaceutical Tablets.

作者信息

Creteanu Andreea, Lisa Gabriela, Vasile Cornelia, Popescu Maria-Cristina, Pamfil Daniela, Panainte Alina-Diana, Tantaru Gladiola, Vlad Madalina-Alexandra, Lungu Claudiu N

机构信息

Department of Pharmaceutical Technology, Faculty of Pharmacy, "Grigore T. Popa" University of Medicine and Pharmacy, 16 University Street, 700115 Iași, Romania.

Department of Chemical Engineering, Faculty of Chemical Engineering and Environmental Protection, "Gheorghe Asachi" Technical University, 73 Prof. Dimitrie Mangeron, Street, 700050 Iași, Romania.

出版信息

Molecules. 2025 Mar 23;30(7):1426. doi: 10.3390/molecules30071426.

DOI:10.3390/molecules30071426
PMID:40286006
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC11990326/
Abstract

In the present work, the application of lignin (LIG) as a bioactive additive for the preparation of drug-loaded tablets by direct compression has been studied, and its influence on the release of chlorzoxazone (CLZ) from the hydrophilic matrices has been followed. In hydrophilic matrices, the excipients Kollidon SR (KOL) and chitosan (CHT) have been used in various amounts and tested in the preparation of 500 mg tablets. They were used as matrix-forming agents, and their influence on the flow and the compressibility properties as well as their effect on the pharmaco-chemical characteristics of the matrix tablets have been studied. Based on the initial evaluation of the pharmaco-technical analysis, pharmaco-chemical characteristics, and in vitro release profile, three matrix tablet formulations (FLa, FLb, and FLc) were selected and further tested. They were evaluated through Fourier-transform infrared spectrometry (FTIR), X-ray diffraction (XRD), thermogravimetry (TG), differential scanning calorimetry (DSC), and in vitro dissolution tests. The three formulations were comparatively studied regarding the release kinetics of active substances using in vitro release testing. The in vitro kinetic study reveals a complex release mechanism occurring in two steps of drug release. The first one is a burst effect that occurs within the first 0-2 h, involving a rapid release of the majority of the drug in a short time, followed by the second step as a prolonged release of the drug, which is relatively constant with a fixed rate over the next 2-36 h. Two factors have been calculated to assess the release profile of chlorzoxazone: f1-the similarity factor and f2-the difference factor together with the correlation coefficient R. Comparing their values, the three optimal formulations have been selected, containing 55 mg LIG (FLa), 60 mg LIG (FLb), or 65 mg LIG (FLc), confirming that LIG next to KOL and CHT influenced the release characteristics of the matrix tablets. Due to the presence of lignin in the matrix of the three formulations, FLa, FLb, and FLc tablets with CLZ, the antioxidant activity has improved. The antioxidant activity of FLc was found to be 21.36% ± 1.06 greater than that of FLa and FLb. The tablets FLa, FLb, and FLc also presented higher antimicrobial activity against , , , and colistin-resistant spp. The higher the concentration of LIG in the matrix (FLc), the higher the antimicrobial activity. By using LIG, the drug dose could be decreased. It can be concluded that lignin can be used as a multifunctional pharmaceutical bioactive additive/excipient for tablets. Its interesting properties have been proven, and its use as a pharmaceutical active additive should be exploited for different applications.

摘要

在本研究中,研究了木质素(LIG)作为生物活性添加剂通过直接压片法制备载药片剂的应用,并跟踪了其对氯唑沙宗(CLZ)从亲水性基质中释放的影响。在亲水性基质中,不同用量的辅料聚乙烯吡咯烷酮共聚物(KOL)和壳聚糖(CHT)被用于制备500 mg片剂并进行测试。它们被用作基质形成剂,并研究了它们对流动性和可压缩性的影响以及它们对基质片剂药物化学特性的作用。基于对药物技术分析、药物化学特性和体外释放曲线的初步评估,选择了三种基质片剂配方(FLa、FLb和FLc)并进一步测试。通过傅里叶变换红外光谱(FTIR)、X射线衍射(XRD)、热重分析(TG)、差示扫描量热法(DSC)和体外溶出试验对它们进行了评估。使用体外释放试验对三种配方中活性物质的释放动力学进行了比较研究。体外动力学研究揭示了药物释放分两个步骤发生的复杂释放机制。第一步是在最初的0 - 2小时内出现的突释效应,涉及大部分药物在短时间内快速释放,随后是第二步,即药物的缓释,在接下来的2 - 36小时内以固定速率相对恒定地释放。计算了两个因子来评估氯唑沙宗的释放曲线:f1 - 相似因子和f2 - 差异因子以及相关系数R。比较它们的值,选择了三种最佳配方,分别含有55 mg LIG(FLa)、60 mg LIG(FLb)或65 mg LIG(FLc),证实了LIG与KOL和CHT一起影响了基质片剂的释放特性。由于三种含有CLZ的配方FLa、FLb和FLc的基质中存在木质素,其抗氧化活性有所提高。发现FLc的抗氧化活性比FLa和FLb高21.36%±1.06。FLa、FLb和FLc片剂对 、 、 和耐黏菌素的 菌也表现出更高的抗菌活性。基质中LIG的浓度越高(FLc),抗菌活性越高。通过使用LIG,可以降低药物剂量。可以得出结论,木质素可用作片剂的多功能药用生物活性添加剂/辅料。其有趣的特性已得到证实,应将其作为药用活性添加剂用于不同的应用中。

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2
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