Exploration of enalapril-lacidipine co-amorphous system with superior dissolution, in vivo absorption and physical stability via incorporated into mesoporous silica

IF 4.7 3区 医学 Q1 PHARMACOLOGY & PHARMACY European Journal of Pharmaceutical Sciences Pub Date : 2025-04-01 Epub Date: 2025-02-05 DOI:10.1016/j.ejps.2025.107033
Yuhan Guo , Hanyu Wang , Qiang Zhu , Ying Mao , Xiangce Wen , Xin Zhang , Shirui Mao , Huiya Yuan , Jian Guan
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Abstract

In the present study, enalapril (ENP) was taking as a potential co-former to fabricate co-amorphous system with lacidipine (LCDP). The ENP/LCDP co-amorphous system was firstly prepared with or without mesoporous SiO2 and characterized by DSC, XRD and SEM technologies. The potential molecular interactions were evaluated by FTIR spectrums. Furthermore, the dissolution and pharmacokinetics behavior of various formulations were also carried out. It was demonstrated that the completely co-amorphization was obtained at ENP/LCDP 2:1 molar ratio by the intermolecular interactions between ENP and LCDP. The ENP/LCDP co-amorphous system significantly improve the dissolution rate of LCDP and ENP respectively. Compared to the naked ENP/LCDP co-amorphous system, remarkable enhancement of dissolution rate and bioavailability of model drugs was observed by incorporated the co-amorphous system into mesoporous SiO2, and a superior physical stability was also observed after accelerated study. Raman mapping revealed that the less microstructure phase separation could be the main reason for the better stability in presence of mesoporous SiO2. In conclusion, ENP could be successfully used as a potential co-former to fabricate co-amorphous system with poorly water-soluble drugs and collaborates the co-amorphous with mesoporous SiO2 become a promising strategy to achieve stable amorphous formulation for further enhancement of dissolution rate and bioavailability.
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通过掺入介孔二氧化硅,探索具有良好溶出性、体内吸收性和物理稳定性的依那普利-拉西地平共非晶体系
本研究以依那普利(ENP)为共聚物,与拉西地平(LCDP)制备共晶体系。采用DSC、XRD和SEM等技术对ENP/LCDP共非晶体系进行了表征。利用FTIR光谱对潜在的分子相互作用进行了评价。此外,还对各制剂的溶出度和药代动力学行为进行了研究。结果表明,在ENP/LCDP摩尔比为2:1的情况下,ENP与LCDP分子间相互作用可实现完全共晶化。ENP/LCDP共晶体系分别显著提高了LCDP和ENP的溶解速率。与裸ENP/LCDP共晶态体系相比,将该共晶态体系掺入介孔SiO2中可显著提高模型药物的溶出速率和生物利用度,加速研究后发现其具有更好的物理稳定性。拉曼图显示,微结构相分离较少可能是中孔SiO2存在时稳定性较好的主要原因。综上所述,ENP可以作为一种潜在的共成体用于制备水溶性较差药物的共非晶体系,并将其与介孔SiO2协同形成稳定的非晶体系,从而进一步提高药物的溶出速率和生物利用度。
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来源期刊
CiteScore
9.60
自引率
2.20%
发文量
248
审稿时长
50 days
期刊介绍: The journal publishes research articles, review articles and scientific commentaries on all aspects of the pharmaceutical sciences with emphasis on conceptual novelty and scientific quality. The Editors welcome articles in this multidisciplinary field, with a focus on topics relevant for drug discovery and development. More specifically, the Journal publishes reports on medicinal chemistry, pharmacology, drug absorption and metabolism, pharmacokinetics and pharmacodynamics, pharmaceutical and biomedical analysis, drug delivery (including gene delivery), drug targeting, pharmaceutical technology, pharmaceutical biotechnology and clinical drug evaluation. The journal will typically not give priority to manuscripts focusing primarily on organic synthesis, natural products, adaptation of analytical approaches, or discussions pertaining to drug policy making. Scientific commentaries and review articles are generally by invitation only or by consent of the Editors. Proceedings of scientific meetings may be published as special issues or supplements to the Journal.
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