治疗缺血性中风的纳米技术给药方法

IF 18 1区 医学 Q1 ENGINEERING, BIOMEDICAL Bioactive Materials Pub Date : 2024-09-23 DOI:10.1016/j.bioactmat.2024.09.016
Bin Peng , Farrah S. Mohammed , Xiangjun Tang , Jia Liu , Kevin N. Sheth , Jiangbing Zhou
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引用次数: 0

摘要

缺血性中风是全球关注的重大公共卫生问题,但缺乏有效的治疗方案。由于血脑屏障(BBB)的限制性,向大脑输送治疗药物面临巨大挑战。血脑屏障的选择性阻碍了治疗药物向大脑的输送,导致缺乏经 FDA 批准的中风药物疗法。本文回顾了已在临床试验中进行评估或正在进行临床试验的治疗药物。随后,我们介绍了用于向缺血性脑部递送药物的纳米颗粒(NPs)的合成和工程设计策略。然后,我们深入探讨了纳米医学的潜在临床转化,并对其在推进中风治疗策略方面的变革性作用提出了看法。总之,现有文献表明,药物输送是中风药物治疗临床转化的主要障碍。虽然纳米技术在应对这一挑战方面已显示出巨大前景,但要成功实现临床转化,还需要进一步提高给药效率和简化制剂。
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Nanotechnology approaches to drug delivery for the treatment of ischemic stroke
Ischemic stroke is a major global public health concern that lacks effective treatment options. A significant challenge lies in delivering therapeutic agents to the brain due to the restrictive nature of the blood-brain barrier (BBB). The BBB's selectivity hampers the delivery of therapeutically relevant quantities of agents to the brain, resulting in a lack of FDA-approved pharmacotherapies for stroke. In this article, we review therapeutic agents that have been evaluated in clinical trials or are currently undergoing clinical trials. Subsequently, we survey strategies for synthesizing and engineering nanoparticles (NPs) for drug delivery to the ischemic brain. We then provide insights into the potential clinical translation of nanomedicine, offering a perspective on its transformative role in advancing stroke treatment strategies. In summary, existing literature suggests that drug delivery represents a major barrier for clinical translation of stroke pharmacotherapies. While nanotechnology has shown significant promise in addressing this challenge, further advancements aimed at improving delivery efficiency and simplifying formulations are necessary for successful clinical translation.
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来源期刊
Bioactive Materials
Bioactive Materials Biochemistry, Genetics and Molecular Biology-Biotechnology
CiteScore
28.00
自引率
6.30%
发文量
436
审稿时长
20 days
期刊介绍: Bioactive Materials is a peer-reviewed research publication that focuses on advancements in bioactive materials. The journal accepts research papers, reviews, and rapid communications in the field of next-generation biomaterials that interact with cells, tissues, and organs in various living organisms. The primary goal of Bioactive Materials is to promote the science and engineering of biomaterials that exhibit adaptiveness to the biological environment. These materials are specifically designed to stimulate or direct appropriate cell and tissue responses or regulate interactions with microorganisms. The journal covers a wide range of bioactive materials, including those that are engineered or designed in terms of their physical form (e.g. particulate, fiber), topology (e.g. porosity, surface roughness), or dimensions (ranging from macro to nano-scales). Contributions are sought from the following categories of bioactive materials: Bioactive metals and alloys Bioactive inorganics: ceramics, glasses, and carbon-based materials Bioactive polymers and gels Bioactive materials derived from natural sources Bioactive composites These materials find applications in human and veterinary medicine, such as implants, tissue engineering scaffolds, cell/drug/gene carriers, as well as imaging and sensing devices.
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