Passive array micro-magnetic stimulation device based on multi-carrier wireless flexible control for magnetic neuromodulation.

IF 3.7 3区 医学 Q2 ENGINEERING, BIOMEDICAL Journal of neural engineering Pub Date : 2023-09-26 DOI:10.1088/1741-2552/acfa23
Lei Tian, Tong Zhao, Lei Dong, Qiwen Liu, Yu Zheng
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Abstract

Objective.The passive micro-magnetic stimulation (µMS) devices typically consist of an external transmitting coil and a single internal micro-coil, which enables a point-to-point energy supply from the external coil to the internal coil and the realization of magnetic neuromodulation via wireless energy transmission. The internal array of micro coils can achieve multi-target stimulation without movement, which improves the focus and effectiveness of magnetic stimulations. However, achieving a free selection of an appropriate external coil to deliver energy to a particular internal array of micro-coils for multiple stimulation targets has been challenging. To address this challenge, this study uses a multi-carrier modulation technique to transmit the energy of the external coil.Approach.In this study, a theoretical model of a multi-carrier resonant compensation network for the arrayµMS is established based on the principle of magnetically coupled resonance. The resonant frequency coupling parameter corresponding to each micro-coil of the arrayµMS is determined, and the magnetic field interference between the external coil and its non-resonant micro-coils is eliminated. Therefore, an effective magnetic stimulation threshold for a micro-coil corresponding to the target is determined, and wireless free control of the internal micro-coil array is achieved by using an external transmitting coil.Main results.The passiveµMS array model is designed using a multi-carrier wireless modulation method, and its synergistic modulation of the magnetic stimulation of synaptic plasticity long-term potentiation in multiple hippocampal regions is investigated using hippocampal isolated brain slices.Significance.The results presented in this study could provide theoretical and experimental bases for implantable micro-magnetic device-targeted therapy, introducing an efficient method for diagnosis and treatment of neurological diseases and providing innovative ideas for in-depth application of micro-magnetic stimulation in the neuroscience field.

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基于多载波无线柔性控制的被动阵列微磁刺激装置,用于磁神经调控。
目的。被动微磁刺激(µMS)设备通常由一个外部发射线圈和一个内部微线圈组成,可实现从外部线圈到内部线圈的点对点能量供应,并通过无线能量传输实现磁性神经调控。微线圈的内部阵列可以在不移动的情况下实现多目标刺激,提高了磁刺激的焦点和有效性。然而,实现对合适的外部线圈的自由选择以将能量输送到用于多个刺激目标的特定内部微线圈阵列一直是具有挑战性的。为了应对这一挑战,本研究使用了多载波调制技术来传输外部线圈的能量。方法。在本研究中,基于磁耦合谐振原理,建立了阵列µMS的多载波谐振补偿网络的理论模型。确定了阵列µMS中每个微线圈对应的谐振频率耦合参数,消除了外部线圈与其非谐振微线圈之间的磁场干扰。因此,确定了对应于目标的微线圈的有效磁刺激阈值,并通过使用外部发射线圈实现了对内部微线圈阵列的无线自由控制。主要结果。使用多载波无线调制方法设计了无源µMS阵列模型,并使用海马分离脑片研究了其对多个海马区域突触可塑性长时程增强的磁刺激的协同调制。意义。本研究结果可为植入式微磁装置靶向治疗提供理论和实验依据,为神经系统疾病的诊断和治疗提供一种有效的方法,为微磁刺激在神经科学领域的深入应用提供创新思路。
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来源期刊
Journal of neural engineering
Journal of neural engineering 工程技术-工程:生物医学
CiteScore
7.80
自引率
12.50%
发文量
319
审稿时长
4.2 months
期刊介绍: The goal of Journal of Neural Engineering (JNE) is to act as a forum for the interdisciplinary field of neural engineering where neuroscientists, neurobiologists and engineers can publish their work in one periodical that bridges the gap between neuroscience and engineering. The journal publishes articles in the field of neural engineering at the molecular, cellular and systems levels. The scope of the journal encompasses experimental, computational, theoretical, clinical and applied aspects of: Innovative neurotechnology; Brain-machine (computer) interface; Neural interfacing; Bioelectronic medicines; Neuromodulation; Neural prostheses; Neural control; Neuro-rehabilitation; Neurorobotics; Optical neural engineering; Neural circuits: artificial & biological; Neuromorphic engineering; Neural tissue regeneration; Neural signal processing; Theoretical and computational neuroscience; Systems neuroscience; Translational neuroscience; Neuroimaging.
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