Priyamvada Modak , Justin Fine , Brayden Colon , Ella Need , Hu Cheng , Leslie Hulvershorn , Peter Finn , Joshua W. Brown
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引用次数: 0
摘要
颞叶干扰神经电刺激(TI)是一种相对较新的非侵入性神经刺激方法,它可以刺激大脑深部区域而不刺激上覆的浅表区域。虽然最近的一些研究已经证明 TI 能够成功调节人类任务诱导的 BOLD 活动,但关于 TI 在静息状态下的预期效应和非目标效应的信息还很有限。我们同时进行了 TI 刺激,优化了设置,以在左尾状核实现最大聚焦,并收集了静息态 fMRI 数据,以研究 TI 对人体 BOLD 信号的影响。我们发现轨道额叶皮层中部(OFC)和海马旁回的部分 BOLD 激活增加。结果表明,TI 可以诱导人体中接受 TI 振幅调制幅度最大的区域的 BOLD 激活增加,而且具有良好的安全性和耐受性。我们还显示了空间精确度的局限性,并探讨了其他脱靶效应的性质和原因。TI 可能是解决大脑深层结构在人类认知中的因果作用问题的一种有前途的方法,也可能提供新的临床治疗方法。
Temporal interference electrical neurostimulation at 20 Hz beat frequency leads to increased fMRI BOLD activation in orbitofrontal cortex in humans
Temporal interference electrical neurostimulation (TI) is a relatively new method of non-invasive neurostimulation that may be able to stimulate deep brain regions without stimulating the overlying superficial regions. Although some recent studies have demonstrated the success of TI in modulating task-induced BOLD activity in humans, there is limited information on intended and off-target effects of TI during resting-state. We simultaneously performed TI stimulation with the set-up optimized for maximum focality in the left caudate and collected resting-state fMRI data to investigate the effects of TI on human BOLD signals. We found increased BOLD activation in a part of the mid-orbitofrontal cortex (OFC) and parahippocampal gyrus. Results indicate that TI can induce increased BOLD activation in the region that receives the highest magnitude of TI amplitude modulation in humans, with good safety and tolerability profiles. We also show the limits of spatial precision and explore the nature and causes of additional off-target effects. TI may be a promising approach for addressing questions about the causal role of deep brain structures in human cognition and may also afford new clinical treatments.
期刊介绍:
Brain Stimulation publishes on the entire field of brain stimulation, including noninvasive and invasive techniques and technologies that alter brain function through the use of electrical, magnetic, radiowave, or focally targeted pharmacologic stimulation.
Brain Stimulation aims to be the premier journal for publication of original research in the field of neuromodulation. The journal includes: a) Original articles; b) Short Communications; c) Invited and original reviews; d) Technology and methodological perspectives (reviews of new devices, description of new methods, etc.); and e) Letters to the Editor. Special issues of the journal will be considered based on scientific merit.