Biomaterial-Based Drug Delivery Systems: Bridging Advances and Applications in Regenerative Medicine.

Irfan Ansari, Shikha Yadav, Shatrudhan Prajapati
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Abstract

In regenerative medicine, biomaterial-based medication delivery systems are a gamechanger because they allow for the restoration of function and the healing of damaged tissues. This study aims to examine the potential of synthetic and natural biomaterials for the delivery of medications and the regeneration of tissues. Our mission is to highlight the most recent developments in manufacturing techniques, drug delivery systems, and biomaterial design that have enhanced therapeutic benefits. Techniques such as stimuli-responsive carriers, targeted delivery methods, and diffusioncontrolled systems make use of biomaterials including chitosan, PLGA, and collagen. A comprehensive literature evaluation was conducted using search terms such as "biomaterials AND drug delivery" and "regenerative medicine AND nanotechnology" in PubMed, Scopus, and Web of Science. Microfabrication, lithography, and three-dimensional printing were some of the fabrication techniques covered in the included research. Their versatility has led to their application in the regeneration of many tissues, including skin, cartilage, bone, and nerves. Notable findings have shown that biomaterials can improve therapeutic efficacy by meeting challenges such as biocompatibility, immunogenicity, and stability. This is achieved by controlled drug release and targeted distribution. Biomaterials show great promise for improving tissue regeneration and medication delivery targeting, according to the research. Their treatments are more efficient, have fewer side effects, and promote faster recovery. However, future studies should focus on resolving some difficulties, such as immunological response, material stability, and clinical translation. The field of biomaterial science is having an impact on the future of regenerative medicine with innovations like injectable systems and smart biomaterials. Improved patient outcomes are largely attributable to biomaterials, and recent advances in gene therapy and precision biomaterials point to a future when personalized healthcare solutions are the norm. Research in the future should focus on finding new applications and removing current limitations so that their full therapeutic potential may be realized.

基于生物材料的药物输送系统:桥梁进展和再生医学的应用。
在再生医学中,基于生物材料的药物输送系统是一个游戏规则的改变者,因为它们允许功能的恢复和受损组织的愈合。本研究旨在研究合成和天然生物材料在药物输送和组织再生方面的潜力。我们的使命是强调在制造技术、药物输送系统和生物材料设计方面的最新发展,这些发展增强了治疗效益。刺激反应载体、靶向递送方法和扩散控制系统等技术利用了壳聚糖、PLGA和胶原蛋白等生物材料。利用PubMed、Scopus和Web of Science中的“生物材料和药物传递”和“再生医学和纳米技术”等搜索词进行了全面的文献评估。微加工、光刻和三维印刷是研究中涉及的一些制造技术。它们的多功能性使其应用于许多组织的再生,包括皮肤、软骨、骨和神经。重要的研究结果表明,生物材料可以通过满足生物相容性、免疫原性和稳定性等挑战来提高治疗效果。这是通过控制药物释放和靶向分配来实现的。根据这项研究,生物材料在改善组织再生和药物靶向递送方面显示出巨大的希望。它们的治疗更有效,副作用更少,并且促进更快的恢复。然而,未来的研究应重点解决免疫应答、材料稳定性和临床翻译等难点。生物材料科学领域正在通过诸如注射系统和智能生物材料等创新对再生医学的未来产生影响。患者预后的改善很大程度上归功于生物材料,基因治疗和精密生物材料的最新进展表明,个性化医疗解决方案将成为未来的常态。未来的研究应该集中在寻找新的应用和消除目前的限制,以便充分发挥其治疗潜力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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