When neuromodulation met control theory.

Roberto Guidotti, Alessio Basti, Giulia Pieramico, Antea D'Andrea, Saeed Makkinayeri, Mauro Pettorruso, Timo Roine, Ulf Ziemann, Risto J Ilmoniemi, Gian Luca Romani, Vittorio Pizzella, Laura Marzetti
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Abstract

The brain is a highly complex physical system made of assemblies of neurons that work together to accomplish elaborate tasks such as motor control, memory and perception. How these parts work together has been studied for decades by neuroscientists using neuroimaging, psychological manipulations, and neurostimulation. Neurostimulation has gained particular interest, given the possibility to perturb the brain and elicit a specific response. This response depends on different parameters such as the intensity, the location and the timing of the stimulation. However, most of the studies performed so far used previously established protocols without considering the ongoing brain activity and, thus, without adaptively targeting the stimulation. In control theory, this approach is called open-loop control, and it is always paired with a different form of control called closed-loop, in which the current activity of the brain is used to establish the next stimulation. Recently, neuroscientists are beginning to shift from classical fixed neuromodulation studies to closed-loop experiments. This new approach allows the control of brain activity based on responses to stimulation and thus to personalize individual treatment in clinical conditions. Here, we review this new approach by introducing control theory and focusing on how these aspects are applied in brain studies. We also present the different stimulation techniques and the control approaches used to steer the brain. Finally, we explore how the closed-loop framework will revolutionize the way the human brain can be studied, including a discussion on open questions and an outlook on future advances.

当神经调节遇到控制理论。
大脑是一个高度复杂的物理系统,由神经元的集合组成,这些神经元共同完成复杂的任务,如运动控制、记忆和感知。几十年来,神经科学家利用神经成像、心理操纵和神经刺激来研究这些部分是如何协同工作的。神经刺激已经获得了特别的兴趣,因为它有可能扰乱大脑并引发特定的反应。这种反应取决于不同的参数,如刺激的强度、位置和时间。然而,迄今为止进行的大多数研究都使用了先前建立的方案,而没有考虑正在进行的大脑活动,因此没有适应性地靶向刺激。在控制理论中,这种方法被称为开环控制,它总是与另一种称为闭环的不同形式的控制相结合,在闭环控制中,大脑当前的活动被用来建立下一个刺激。近年来,神经科学家开始从经典的固定神经调节研究转向闭环实验。这种新方法可以根据对刺激的反应来控制大脑活动,从而在临床条件下个性化治疗。在这里,我们通过引入控制理论来回顾这一新方法,并重点介绍这些方面如何在大脑研究中应用。我们还介绍了不同的刺激技术和用于控制大脑的控制方法。最后,我们探讨了闭环框架将如何彻底改变人类大脑的研究方式,包括对开放性问题的讨论和对未来进展的展望。
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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