Preface to ‘Advanced neurotechnologies: translating innovation for health and well-being’

Rupam Das, G. Curia, H. Heidari
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Abstract

In the nervous system, huge amounts of neurons constantly induce and transmit electrophysiological signals to communicate between neurons and brain regions. Innovative neurotechnologies have added significantly to neural engineering and have led directly to many fundamental scientific insights into the function of the central and peripheral nervous systems. This issue addressed the novel approaches toward biocompatible neural interfaces, thin and flexible electronics and wireless circuits and systems, which will allow readers to identify the requirements, challenges and future directions related to biointegrated implantable neurotechnologies. Additionally, this special issue aims to report the latest advances and future trends of critical techniques and frameworks in implantable neural devices, which will allow biomedical researchers to identify new opportunities. The theme issue starts with a research article by Lee & Fried [1], which aims to show that innovative magnetic stimulation of the visual cortex (V1) using microcoils induces spatially confined activation in the secondary visual cortex (V2) in mouse brain slices. They demonstrated that, compared with the traditional electrical stimulation, the microcoils-based magnetic stimulation is better for confining the activation to a small region in V1 and produces more precise and sustained
前言“先进神经技术:为健康和福祉转化创新”
在神经系统中,大量的神经元不断地诱导和传递电生理信号,在神经元和大脑区域之间进行交流。创新的神经技术大大增加了神经工程,并直接导致了对中枢和周围神经系统功能的许多基本科学见解。这一期讨论了生物相容性神经接口、薄而灵活的电子设备和无线电路和系统的新方法,这将使读者能够识别与生物集成植入式神经技术相关的要求、挑战和未来方向。此外,本期特刊旨在报道植入式神经装置关键技术和框架的最新进展和未来趋势,这将使生物医学研究人员能够发现新的机会。主题问题始于Lee & Fried b[1]的一篇研究文章,该文章旨在表明,使用微线圈对视觉皮层(V1)进行创新的磁刺激,可以在小鼠大脑切片中诱导二级视觉皮层(V2)的空间受限激活。他们证明,与传统的电刺激相比,基于微线圈的磁刺激可以更好地将激活限制在V1的小区域内,并且产生更精确和持续的刺激
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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