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Vagus nerve stimulation to treat inflammatory bowel disease: a chronic, preclinical safety study in sheep 迷走神经刺激治疗炎症性肠病:绵羊的一项慢性临床前安全性研究
Pub Date : 2018-12-01 DOI: 10.2217/BEM-2018-0011
Sophie C. Payne, O. Burns, M. Stebbing, Ross Thomas, An Silva, A. Sedo, F. Weissenborn, Tomoko Hyakumura, Mario Huynh, C. May, Richard A. Williams, J. Furness, J. Fallon, R. Shepherd
Aim: Electrical stimulation of the left cervical vagus nerve is a feasible therapy for inflammatory bowel disease (IBD). However, due to the location of the electrode placement, stimulation is often associated with side effects. Methods: We developed a cuff electrode array, designed to be implanted onto the vagus nerve of the lower thorax or abdomen, below branches to vital organs, to minimize off-target effects to stimulation. Results: Following chronic implantation and electrical stimulation, electrodes remained functional and neural thresholds stable, while there were minimal off-target affects to stimulation. No nerve damage or corrosion of stimulated electrodes was observed. Conclusion: This novel electrode array, located on the vagus nerve below branches to vital organs, is a safe approach for the treatment of inflammatory bowel disease.
目的:电刺激左颈迷走神经是治疗炎性肠病(IBD)的一种可行方法。然而,由于电极放置的位置,刺激通常与副作用有关。方法:我们开发了一种袖口电极阵列,设计用于植入下胸或腹部的迷走神经,在分支到重要器官的下方,以减少对刺激的脱靶效应。结果:在慢性植入和电刺激后,电极保持功能和神经阈值稳定,而刺激的脱靶影响最小。刺激电极未见神经损伤或腐蚀。结论:这种新型电极阵列位于迷走神经分支下的重要器官,是治疗炎症性肠病的一种安全方法。
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引用次数: 13
Innovations in electrical stimulation harness neural plasticity to restore motor function. 电刺激创新利用神经可塑性恢复运动功能。
Pub Date : 2018-12-01 Epub Date: 2019-04-24 DOI: 10.2217/bem-2019-0002
Xiaoyu Peng, Jordan L Hickman, Spencer G Bowles, Dane C Donegan, Cristin G Welle

Novel technology and innovative stimulation paradigms allow for unprecedented spatiotemporal precision and closed-loop implementation of neurostimulation systems. In turn, precise, closed-loop neurostimulation appears to preferentially drive neural plasticity in motor networks, promoting neural repair. Recent clinical studies demonstrate that electrical stimulation can drive neural plasticity in damaged motor circuits, leading to meaningful improvement in users. Future advances in these areas hold promise for the treatment of a wide range of motor systems disorders.

新技术和创新的刺激范式使神经刺激系统实现了前所未有的时空精度和闭环。反过来,精确的闭环神经刺激似乎可以优先驱动运动网络中的神经可塑性,促进神经修复。最近的临床研究表明,电刺激可以驱动受损运动回路中的神经可塑性,使使用者的病情得到明显改善。未来,这些领域的进展将为治疗各种运动系统疾病带来希望。
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引用次数: 0
Interview with Professor Dominique Durand: developing carbon nanotube yarn neural interfaces Dominique Durand教授访谈:开发碳纳米管纱线神经接口
Pub Date : 2018-11-01 DOI: 10.2217/BEM-2018-0010
D. Durand
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引用次数: 1
Neural interfaces based on amorphous silicon carbide ultramicroelectrode arrays 基于非晶碳化硅超微电极阵列的神经接口
Pub Date : 2018-11-01 DOI: 10.2217/BEM-2018-0006
Felix Deku, A. Ghazavi, S. Cogan
Size and material considerations are important in the development of next-generation chronically reliable neural interface devices. In this review, we discuss the use of amorphous silicon carbide (a-SiC) for the fabrication of indwelling electrode arrays with ultrathin penetrating shanks for neural stimulation and recording. The a-SiC film is stable in saline environments and has a high intrinsic stiffness that allows fabrication of tissue-penetrating arrays with extremely small cross-sectional areas (<60 μm2). Present literature on arrays with extremely small shanks and/or ultramicroelectrode (UME) sites are reviewed. Properties of a-SiC films and their current biomedical applications are summarized. Reduced shank dimensions increase the flexibility of high Young's modulus a-SiC arrays. Iridium oxide-coated UMEs had electrochemical properties suitable for neural recording and stimulation, and recorded neural signals with high amplitudes and high signal-to-noise ratios. UMEs and a-SiC may provide a platform for next-generation high-density chronic neural interface devices.
在开发下一代长期可靠的神经接口设备时,尺寸和材料方面的考虑很重要。在这篇综述中,我们讨论了非晶碳化硅(a-SiC)用于制造用于神经刺激和记录的具有超薄穿透柄的留置电极阵列。a-SiC膜在盐水环境中是稳定的,并且具有高的固有刚度,这允许制造具有极小横截面积(<60μm2)的组织穿透阵列。综述了目前关于具有极小柄和/或超微电极(UME)位点的阵列的文献。综述了a-SiC薄膜的性能及其在生物医学中的应用现状。柄部尺寸的减小增加了高杨氏模量a-SiC阵列的灵活性。氧化铱涂层的UME具有适合神经记录和刺激的电化学特性,并记录具有高振幅和高信噪比的神经信号。UME和a-SiC可以为下一代高密度慢性神经接口设备提供平台。
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引用次数: 7
Are ‘next generation’ bioelectronics being designed using old technologies? “下一代”生物电子学是使用旧技术设计的吗?
Pub Date : 2018-11-01 DOI: 10.2217/BEM-2018-0008
R. Green
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引用次数: 1
Methods for powering bioelectronic microdevices 为生物电子微型设备供电的方法
Pub Date : 2018-11-01 DOI: 10.2217/BEM-2018-0005
Pui Mun Lee, Ze Xiong, J. S. Ho
Bioelectronic microdevices are an emerging class of biomedical devices miniaturized at the scale of a millimeter or less, which promise new capabilities for monitoring and treating human disease. Although rapid progress has been made in the sensing and actuation capabilities of microdevices, a major technological challenge remains in the way that these devices are powered within the body. In this review, we revisit the power requirements of microdevices, describe current methods for storing, transferring or harvesting energy in microdevices, provide an overview of emerging powering approaches and discuss the promise of microdevices in biomedicine.
生物电子微型设备是一类新兴的生物医学设备,其小型化规模为一毫米或更小,有望为监测和治疗人类疾病提供新的能力。尽管微型设备的传感和驱动能力取得了快速进展,但这些设备在体内的供电方式仍然是一个重大的技术挑战。在这篇综述中,我们重新审视了微型器件的功率要求,描述了当前在微型器件中存储、转移或获取能量的方法,概述了新兴的功率方法,并讨论了微型器件在生物医学中的前景。
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引用次数: 13
Light-triggered biological modulation with silicon-based materials and devices 硅基材料和器件的光触发生物调制
Pub Date : 2018-11-01 DOI: 10.2217/BEM-2018-0012
Naomi Yamamoto, B. Tian
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引用次数: 0
Targeting bioelectronically the carotid sinus nerve in Type 2 diabetes: strengths, drawbacks and challenges for the future 生物电子靶向颈动脉窦神经治疗2型糖尿病:优势、缺点和未来的挑战
Pub Date : 2018-11-01 DOI: 10.2217/BEM-2018-0007
S. Conde, M. Guarino
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引用次数: 2
Interview with Dr Theodoros Zanos: untangling the inflammatory reflex Theodoros Zanos博士访谈:解开炎症反射
Pub Date : 2018-11-01 DOI: 10.2217/BEM-2018-0009
Theodoros P. Zanos
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引用次数: 0
From neuroimunomodulation to bioelectronic treatment of rheumatoid arthritis. 从神经免疫调节到类风湿关节炎的生物电子治疗。
Pub Date : 2018-05-01 DOI: 10.2217/bem-2018-0001
Alexandre Kanashiro, Gabriel Shimizu Bassi, Fernando de Queiróz Cunha, Luis Ulloa

Neuronal stimulation is an emerging field in modern medicine to control organ function and reestablish physiological homeostasis during illness. The nervous system innervates most of the peripheral organs and provides a fine tune to control the immune system. Most of these studies have focused on vagus nerve stimulation and the physiological, cellular and molecular mechanisms regulating the immune system. Here, we review the new results revealing afferent vagal signaling pathways, immunomodulatory brain structures, spinal cord-dependent circuits, neural and non-neural cholinergic/catecholaminergic signals and their respective receptors contributing to neuromodulation of inflammation in rheumatoid arthritis. These new neuromodulatory networks and structures will allow the design of innovative bioelectronic or pharmacological approaches for safer and low-cost treatment of arthritis and related inflammatory disorders.

神经刺激是现代医学的一个新兴领域,用于控制器官功能和重建疾病期间的生理稳态。神经系统支配着大部分外周器官,并为控制免疫系统提供了精细的调节。这些研究大多集中在迷走神经刺激和调节免疫系统的生理、细胞和分子机制上。在这里,我们回顾了新的研究结果,揭示了传入迷走神经信号通路、免疫调节脑结构、脊髓依赖回路、神经和非神经胆碱能/儿茶酚胺能信号及其各自的受体在类风湿关节炎炎症的神经调节中的作用。这些新的神经调节网络和结构将允许设计创新的生物电子或药理学方法,以更安全和低成本治疗关节炎和相关炎症性疾病。
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引用次数: 16
期刊
Bioelectronics in medicine
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