Louis Lynn, Chee Bor Shin, McAfee Marion, Nugent Michael
Materials Research Institute, Faculty of Engineering, Technological University of the Shannon, Midlands Midwest, Athlone Main Campus, N37HD68 Athlone, Ireland.
Centre for Mathematical Modelling and Intelligent Systems for Health and Environment (MISHE), Atlantic Technological University, F91YW50 Sligo, Ireland.
Pharmaceutics. 2023 Jun 3;15(6):1649. doi: 10.3390/pharmaceutics15061649.
To date, GBM remains highly resistant to therapies that have shown promising effects in other cancers. Therefore, the goal is to take down the shield that these tumours are using to protect themselves and proliferate unchecked, regardless of the advent of diverse therapies. To overcome the limitations of conventional therapy, the use of electrospun nanofibres encapsulated with either a drug or gene has been extensively researched. The aim of this intelligent biomaterial is to achieve a timely release of encapsulated therapy to exert the maximal therapeutic effect simultaneously eliminating dose-limiting toxicities and activating the innate immune response to prevent tumour recurrence. This review article is focused on the developing field of electrospinning and aims to describe the different types of electrospinning techniques in biomedical applications. Each technique describes how not all drugs or genes can be electrospun with any method; their physico-chemical properties, site of action, polymer characteristics and the desired drug or gene release rate determine the strategy used. Finally, we discuss the challenges and future perspectives associated with GBM therapy.
迄今为止,胶质母细胞瘤(GBM)对在其他癌症中显示出良好效果的疗法仍具有高度抗性。因此,目标是打破这些肿瘤用来自我保护并不受控制地增殖的屏障,无论各种疗法如何出现。为了克服传统疗法的局限性,对包裹有药物或基因的电纺纳米纤维的应用进行了广泛研究。这种智能生物材料的目的是实现包裹疗法的适时释放,以发挥最大治疗效果,同时消除剂量限制毒性并激活先天免疫反应以防止肿瘤复发。这篇综述文章聚焦于电纺丝的发展领域,旨在描述生物医学应用中不同类型的电纺丝技术。每种技术都说明了并非所有药物或基因都能采用任何方法进行电纺;它们的物理化学性质、作用部位、聚合物特性以及所需的药物或基因释放速率决定了所采用的策略。最后,我们讨论了与GBM治疗相关的挑战和未来前景。