National Center for Pharmaceutical Technology, Life science and Environmental Research Institute, King Abdulaziz City for Science and Technology (KACST), P.O. Box 6086, Riyadh 11461, Saudi Arabia.
Biomater Sci. 2021 Jun 4;9(11):3898-3910. doi: 10.1039/d1bm00235j.
Repetitive outbreaks and prolonged epidemics represent mortal threats to global health, creating chaos in our globalized world. To date, scientists have been compelled to follow FDA guidelines for conventional clinical trials, which decelerates the release of effective therapies to battle outbreaks and safeguard global health security. Developing multi-purpose platform nanotechnologies to self-target specific organs in response to the disease microenvironment could greatly help to rapidly anticipate and efficiently manage outbreaks. Nano-interventions in the form of self-targeting nanoparticles (NPs) could accelerate the clinical translation of potential drugs to fight future outbreaks via innovating their clinical trials. This review sets the foundation of the self-targeting concept to govern the in vivo fate of NPs without the need to complicate the engineering designs with targeting ligands. The proposed catalogue of accelerated nano-innovations offers self-targeting, physiological trafficking, bio-compliance, and controllable drug release in response to associated smart linkers.
反复爆发和长期流行对全球健康构成致命威胁,给全球化的世界带来混乱。迄今为止,科学家们不得不遵循 FDA 的常规临床试验指南,这减缓了有效疗法的推出,以应对疫情爆发并保障全球健康安全。开发多用途平台纳米技术,以针对特定器官的疾病微环境进行自我靶向,这将极大地有助于快速预测和有效管理疫情爆发。以自我靶向纳米粒子(NPs)形式的纳米干预措施可以通过创新临床试验来加速潜在药物的临床转化,从而对抗未来的疫情爆发。本综述为自我靶向概念奠定了基础,无需用靶向配体来复杂化工程设计,即可控制 NPs 的体内命运。所提出的加速纳米创新目录提供了自我靶向、生理运输、生物相容性和可控药物释放,以响应相关的智能连接物。