Exploring the Dissolution, Solid-state Properties, and Long-term Storage Stability of Cryoprotectant-free Fenbendazole Nanoparticles

IF 4.3 3区 材料科学 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC ACS Applied Electronic Materials Pub Date : 2024-08-28 DOI:10.1208/s12249-024-02921-8
Giselle Bedogni, Lina Vargas Michelena, Katia Seremeta, Nora Okulik, Claudio Salomon
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Abstract

Fenbendazole is an antiparasitic drug widely used in veterinary medicine to treat parasitic infections caused in animals like cattle, horses, sheep, and dogs. Recently, it has been repositioned as a potential alternative for cancer treatment. However, it is a highly hydrophobic molecule (0.9 ug/mL), which can compromise its dissolution rate and absorption. Thus, this work aimed to apply a nanotechnological approach to improve drug solubility and dissolution performance. Fenbendazole nanoparticles stabilized by different poloxamers were obtained by lyophilization without cryoprotectants. The behavior of the drug in the solid state was analyzed by X-ray diffractometry, differential scanning calorimetry, and infrared spectroscopy. The nanosystems were also evaluated for solubility and dissolution rate. A long-term stability evaluation was performed for three years at room temperature. The yields of the lyophilization ranged between 75 and 81% for each lot. The nanoparticles showed a submicron size (< 340 nm) and a low polydispersity depending on the stabilizer. The physicochemical properties of the prepared systems indicated a remarkable amorphization of the drug, which influenced its solubility and dissolution performance. The drug dissolution from both the fresh and aged nanosystems was significantly higher than that of the raw drug. In particular, nanoparticles prepared with poloxamer 407 showed no significant modifications in their particle size in three years of storage. Physical stability studies indicated that the obtained systems prepared with P188, P237, and P407 suffered certain recrystallization during long storage at 25 °C. These findings confirm that selected poloxamers exhibited an important effect in formulating fenbendazole nanosystems with improved dissolution.

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探索不含低温保护剂的苯醚甲环唑纳米颗粒的溶解、固态特性和长期储存稳定性。
芬苯达唑是一种抗寄生虫药物,广泛应用于兽医领域,治疗牛、马、羊和狗等动物的寄生虫感染。最近,它被重新定位为治疗癌症的潜在替代药物。然而,它是一种高度疏水的分子(0.9 微克/毫升),这可能会影响其溶解率和吸收。因此,这项工作旨在应用纳米技术方法来提高药物的溶解度和溶解性能。在不使用低温保护剂的情况下,通过冻干法获得了由不同多聚酰胺稳定的芬苯达唑纳米颗粒。通过 X 射线衍射仪、差示扫描量热仪和红外光谱分析了药物在固态下的行为。此外,还对纳米系统的溶解度和溶解速率进行了评估。在室温下进行了为期三年的长期稳定性评估。每个批次的冻干产率在 75% 到 81% 之间。根据稳定剂的不同,纳米颗粒显示出亚微米尺寸(< 340 nm)和较低的多分散性。所制备体系的理化性质表明,药物发生了显著的非形态化,这影响了药物的溶解度和溶解性能。新鲜和老化纳米体系的药物溶解度都明显高于生药。尤其是用聚氧乙烯聚酰胺 407 制备的纳米颗粒,在三年的储存过程中粒径没有发生明显变化。物理稳定性研究表明,用 P188、P237 和 P407 制备的系统在 25 °C 长期储存期间会出现一定程度的再结晶。这些研究结果证实,所选的多羟酰胺在配制芬苯达唑纳米系统中具有重要作用,可提高溶解度。
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7.20
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4.30%
发文量
567
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