From psychophysiology to brain imaging: forty-five years MMN history of investigating acoustic change sensitivity

IF 1.8 4区 生物学 Q3 BIOLOGY
Valéria Csépe, Ferenc Honbolygó
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引用次数: 0

Abstract

Forty-five years have passed since the first publication of the mismatch negativity (MMN) event-related brain potential (ERP) component. The first 10 years of research hardly gained any particular attention of the scientific community interested in acoustic perception. Debates on the nature of sensation versus perception were going on, and the technical possibilities to record ERPs, called in general evoked potentials, were very limited. Subtle changes in pure tone frequency or intensity giving rise to the MMN component were first investigated in humans. The background of the theoretical model developed by Risto Näätänen was the orientation reaction model of E.N. Sokolov published in 1963 so that the MMN was seen first as an electrophysiological correlate of auditory change detection. This fundamental ability of the auditory system seen as crucial for survival led to the development of the first animal model of the MMN (Csépe et al. in Clin Neurophysiol 66: 571–578, 1987). Indeed, it was confirmed that the MMN was the brain correlate of subtle changes detected that might alert to potential threats in the environment and direct the behavioral orientation. The investigations performed after 2000 introduced complex models and more sophisticated methods, both in animal and human studies, so that the MMN method was on the way to become a tool on the first place and not the main goal of research. This approach was further strengthened by the increasing number of studies on different clinical populations aiming at future applications. The aim of our review is to describe and redefine what the MMN may reflect in auditory perception and to show why and how this brain correlate of changes in the auditory scene can be used as a valuable tool in cognitive neuroscience research. We refer to publications selected to underly the argument the MMN cannot be classified anymore as a sign of simple change detection and not all the indicators used to confirm how genuine the MMN elicited by variations of tones are valid for those to speech contrasts. We provide a fresh view on the broadly used MMN models, provided by some influential publications as well as on the unwritten history of MMN research aiming to give revised picture on what the MMN may truly reflect. We show how the focus and terminology of the MMN research have changed and what kind of misunderstandings and seemingly contradictive results prevent the MMN community to accept a generally usable cognitive model.

从心理生理学到脑成像:MMN 四十五年声学变化敏感性研究历史
自错配负性(MMN)事件相关脑电位(ERP)成分首次发表以来,45 年过去了。最初 10 年的研究几乎没有引起对声学感知感兴趣的科学界的特别关注。当时,关于感觉与知觉性质的争论仍在继续,而记录 ERP(一般称为诱发电位)的技术可能性非常有限。人类首次研究了纯音频率或强度的微妙变化引起的 MMN 分量。Risto Näätänen 所建立的理论模型的背景是 E.N. Sokolov 于 1963 年发表的定向反应模型,因此 MMN 首先被视为听觉变化检测的电生理关联。听觉系统的这一基本能力被视为生存的关键,这促使人们开发出第一个 MMN 动物模型(Csépe 等人,载于 Clin Neurophysiol 66: 571-578,1987 年)。事实上,MMN 被证实是大脑检测到的微妙变化的相关因素,这些微妙变化可能提醒人们注意环境中的潜在威胁,并引导人们的行为取向。2000 年后进行的研究在动物和人体研究中引入了复杂的模型和更复杂的方法,因此,MMN 方法逐渐成为一种工具,而不是研究的主要目标。以未来应用为目标的不同临床人群的研究数量不断增加,进一步强化了这一方法。我们的综述旨在描述和重新定义 MMN 在听觉感知中的反映,并说明为什么以及如何将这种与听觉场景变化相关的大脑指标用作认知神经科学研究的重要工具。我们参考了一些出版物,这些出版物的论点是:MMN 不能再被归类为简单的变化检测标志,而且并非所有用于确认音调变化引起的 MMN 真实性的指标都适用于语音对比。我们对一些有影响力的出版物所提供的广泛使用的 MMN 模型以及 MMN 研究的不成文历史提出了新的看法,旨在对 MMN 可能真正反映的情况进行修正。我们将展示 MMN 研究的重点和术语是如何发生变化的,以及哪些误解和看似矛盾的结果阻碍了 MMN 社区接受一个普遍可用的认知模型。
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来源期刊
Biologia futura
Biologia futura Agricultural and Biological Sciences-Agricultural and Biological Sciences (all)
CiteScore
3.50
自引率
0.00%
发文量
27
期刊介绍: How can the scientific knowledge we possess now influence that future? That is, the FUTURE of Earth and life − of humankind. Can we make choices in the present to change our future? How can 21st century biological research ask proper scientific questions and find solid answers? Addressing these questions is the main goal of Biologia Futura (formerly Acta Biologica Hungarica). In keeping with the name, the new mission is to focus on areas of biology where major advances are to be expected, areas of biology with strong inter-disciplinary connection and to provide new avenues for future research in biology. Biologia Futura aims to publish articles from all fields of biology.
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