Schoenbach Karl H
Frank Reidy Research Center for Bioelectrics, Old Dominion University, Norfolk, Virginia.
Bioelectromagnetics. 2018 May;39(4):257-276. doi: 10.1002/bem.22117. Epub 2018 Mar 12.
This article is based on my presentation at the D'Arsonval Ceremony at the Joint Annual Meeting of the Bioelectromagnetics Society and the European BioElectromagnetics Association in Hangzhou, China, in June of 2017. It describes the pathway from the first studies on the effects of intense, nanosecond pulses on biological cells to the development of medical therapies based on these effects. The motivation for the initial studies of the effects of high voltage, nanosecond pulses on mammalian cells was based on a simple electrical circuit model, which predicted that such pulses allow us to affect not just the plasma membrane but also the subcellular structures. The first experimental study that confirmed this hypothesis was published in 2001 in the Bioelectromagnetics journal. It was followed by a large number of publications that showed that such ultrashort pulses affect cell functions, such as programmed cell death, and, at lower intensity, calcium mobilization from intracellular structures. These basic studies were leading to novel cancer treatments, treatments of cardiac arrhythmia, and advanced wound healing. Further, by reducing the pulse duration into the picosecond range, antenna-based neural stimulation seems to be possible. This manuscript gives an overview of the progress in this field of research in the decade after the initial bioelectric studies with high-voltage, nanosecond pulses, particularly the research performed at the Frank Reidy Research Center for Bioelectrics. It also tells you about my journey and that of my colleagues at the Center for Bioelectrics into and through this fascinating bioelectromagnetics research area. Bioelectromagnetics. 39:257-276, 2018. © 2018 Wiley Periodicals, Inc.
本文基于我于2017年6月在中国杭州举行的生物电磁学会和欧洲生物电磁协会联合年会上的达松伐尔奖颁奖典礼上的演讲。它描述了从最初关于强纳秒脉冲对生物细胞影响的研究到基于这些影响开发医学疗法的历程。对高压纳秒脉冲对哺乳动物细胞影响进行初步研究的动机基于一个简单的电路模型,该模型预测此类脉冲不仅能影响质膜,还能影响亚细胞结构。2001年发表在《生物电磁学》杂志上的第一项实验研究证实了这一假设。随后大量的出版物表明,此类超短脉冲会影响细胞功能,如程序性细胞死亡,以及在较低强度下从细胞内结构中动员钙。这些基础研究催生了新型癌症治疗方法、心律失常治疗方法和先进的伤口愈合方法。此外,通过将脉冲持续时间缩短至皮秒范围,基于天线的神经刺激似乎成为可能。本手稿概述了在最初进行高压纳秒脉冲生物电研究后的十年里,该研究领域的进展,特别是在弗兰克·里迪生物电研究中心进行的研究。它还讲述了我以及生物电中心的同事们进入并深入这个迷人的生物电磁学研究领域的历程。《生物电磁学》。2018年,第39卷,第257 - 276页。© 2018威利期刊公司。