A New Screening Strategy for Flavonoid Components to Obtain a Satisfactory Co-Amorphous System with Piperine

IF 3.4 4区 医学 Q2 PHARMACOLOGY & PHARMACY AAPS PharmSciTech Pub Date : 2025-03-05 DOI:10.1208/s12249-025-03077-9
Jiawei Han, Wen Sun, Yongxu Yao, Shuo Li, Zhimin Yue, Weitao Fang, Xiaoqian Liu, Jue Wang, Jiaxin Chen
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Abstract

Flavonoids are a large class of compounds with a variety of biological activities. Nevertheless, their therapeutic application remains limited due to the generally low water solubility. In the present study, an integrated approach was provided to guide the design of flavonoid co-amorphous systems co-formed with piperine (PIP). Firstly, 7 flavonoid compounds showed good miscibility with PIP from 13 flavonoid candidates. Then, molecular dynamics simulation confirmed hydrogen bond formation between 5 flavonoid compounds (i.e., BAI, HES, ISO, NAR and KAE) and PIP. Herein, 5 flavonoid compounds were successfully co-amorphized with PIP by the melting and quench cooling method, which were proved via PLM, PXRD and DSC measurements. FTIR results showed the potential hydrogen bond interactions between -OH of flavonoid molecules and C = O of PIP molecule in the formed co-amorphous systems, which were consistent with RDF analyses in molecular models. For dissolution tests, 4 co-amorphous systems (i.e., BAI-PIP CM, HES-PIP CM, ISO-PIP CM and NAR-PIP CM) appeared abnormally reduced dissolution compared to their original crystalline counterparts arising from the formation of gels during dissolution, while only KAE-PIP CM displayed significantly enhanced dissolution (5.83-fold of crystalline KAE at 12 h) with long-time supersaturated concentration. Meanwhile, KAE-PIP CM kept physically stable at least 3 months under 25°C and 40°C conditions, and possessed excellent physical stability over individual amorphous components, which was attributed to the stronger intermolecular interaction by higher binding energy analysis. Therefore, this study provides a design strategy to guide the screening of flavonoid co-amorphous systems through combining theory-model-experiment techniques.

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一种新的黄酮类成分筛选策略,以获得令人满意的与胡椒碱共聚的非晶态体系
类黄酮是一大类化合物,具有多种生物活性。然而,由于黄酮类化合物的水溶性普遍较低,其治疗应用仍然受到限制。本研究提供了一种综合方法,用于指导黄酮类化合物与胡椒碱(PIP)共形体系的设计。首先,在 13 种候选类黄酮化合物中,有 7 种类黄酮化合物与 PIP 具有良好的互溶性。然后,分子动力学模拟证实了 5 种黄酮化合物(即 BAI、HES、ISO、NAR 和 KAE)与 PIP 之间形成氢键。通过PLM、PXRD和DSC测量,5种黄酮类化合物成功地与PIP通过熔融和骤冷方法发生了共变形。傅立叶变换红外光谱(FTIR)结果表明,在所形成的共晶体系中,类黄酮分子的-OH与PIP分子的C=O之间存在潜在的氢键相互作用,这与分子模型中的RDF分析结果一致。在溶出试验中,4种共晶体系(即BAI-PIP CM、HES-PIP CM、ISO-PIP CM和NAR-PIP CM)的溶出率与原始结晶体系相比出现异常降低,原因是在溶出过程中形成了凝胶,而只有KAE-PIP CM在长时间过饱和浓度下的溶出率显著提高(12 h时为结晶KAE的5.83倍)。同时,在 25°C 和 40°C 条件下,KAE-PIP CM 至少能保持 3 个月的物理稳定性,与单个无定形成分相比,具有优异的物理稳定性。因此,本研究提供了一种设计策略,通过理论-模型-实验相结合的技术指导类黄酮共晶体系的筛选。 图文摘要
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来源期刊
AAPS PharmSciTech
AAPS PharmSciTech 医学-药学
CiteScore
6.80
自引率
3.00%
发文量
264
审稿时长
2.4 months
期刊介绍: AAPS PharmSciTech is a peer-reviewed, online-only journal committed to serving those pharmaceutical scientists and engineers interested in the research, development, and evaluation of pharmaceutical dosage forms and delivery systems, including drugs derived from biotechnology and the manufacturing science pertaining to the commercialization of such dosage forms. Because of its electronic nature, AAPS PharmSciTech aspires to utilize evolving electronic technology to enable faster and diverse mechanisms of information delivery to its readership. Submission of uninvited expert reviews and research articles are welcomed.
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