喷雾干燥,可生物降解,利奈唑胺负载微球用于治疗肺部疾病

Mazen Gharsan Al-Gharsan
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摘要

导言:世界各地的研究人员目前正在寻求创新的治疗方案,以应对细菌对抗菌药物耐药性的惊人增长。金黄色葡萄球菌是一种经常遇到并可能危及生命的细菌,它已经变得特别成问题。利奈唑胺是市场上为数不多的可以治疗对其他抗生素有耐药性的细菌的药物之一。这是第一个抗菌恶唑烷酮已被证明是有效的治疗。利奈唑胺是一种新型恶唑烷酮类药物。它能杀死多种细菌,包括金黄色葡萄球菌。目的:为了减少与频繁和慢性使用利奈唑胺相关的非靶器官不良反应,我们开发了具有缓释特性的可生物降解肺靶向微球。方法:利用Buchi B-90纳米喷雾干燥机制备利奈唑胺卡波醇微球制剂。采用面心中心复合设计(CCD)优化喷雾干燥工艺。 结果:扫描电镜成像显示,微球平均粒径为7.516µm,微球表面出现皱缩现象。测定药物含量为73% 3.1%,得率为72%±2.4%。在体外12小时内药物释放达到峰值(99.1%)。红外光谱分析结果表明,利奈唑胺与卡波波尔934P聚合物的官能团之间没有明显的物理和化学相互作用,最终形成稳定的共混物。利奈唑胺、卡波波和CLSMO的XRD谱图表明,利奈唑胺在聚合物中呈分子分散。DSC结果揭示了药物的无定形性质,这解释了缺乏特征峰,表明缺乏明确的晶体结构。 结论:优化后的配方在体内应用中显示出巨大的潜力,特别是在靶向给药到肺部的应用中。
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Spray-dried, Biodegradable, Linezolid-loaded Microspheres for Use in the Treatment of Lung Diseases
Introduction: Researchers worldwide are currently seeking innovative treatment options to combat the alarming increase in bacterial resistance to antimicrobial drugs. Staphylococcus aureus, a frequently encountered and potentially life-threatening bacterium, has become particularly problematic. Linezolid is one of the few medicines on the market that can treat bacteria resistant to other antibiotics. This is the first antibacterial oxazolidinone that has shown to be therapeutically efficacious. Linezolid is a new Oxazolidinone medicine. It kills a broad spectrum of bacteria, including Staphylococcus aureus. Objectives: To reduce non-target organ adverse effects associated with frequent and chronic Linezolid usage, we developed biodegradable, lung-targeted microspheres with sustained release profile. Methods: In this work, a Buchi B-90 nanospray drier was used to prepare a Linezolid-loaded carbopol microsphere (CLSMO)-based formulation. The spray-drying process was optimized using a face-centered central composite design (CCD). Results: The average particle size was 7.516 µm, and the surface of the microspheres was shriveled, according to scanning electron microscope imaging. Drug content and yield were determined to be 73% 3.1% and 72% ± 2.4%., respectively, and drug release (99.1%) peaked for up to 12 hours in vitro. FTIR spectral analysis results suggest that there are no significant physical and chemical interactions between the functional groups of Linezolid and carbopol 934P polymer which ultimately form a stable blend. Linezolid, Carbopol, and CLSMO all had XRD patterns that showed the linezolid would be molecularly dispersed in the polymer. The DSC findings revealed the drug's amorphous nature, which explains the absence of characteristic peaks, indicating a lack of well-defined crystalline structure. Conclusion: The optimized formulation shows significant potential for use as a drug-delivery system in in-vivo applications, particularly in targeted drug delivery to the lungs.
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