Heather Woodhouse, Sarah J Gascoigne, Gerard Hall, Callum Simpson, Nathan Evans, Gabrielle M Schroeder, Peter N Taylor, Yujiang Wang
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Papers often cite different software and numerous articles to summarise the lengthy method, making it laborious for other researchers to understand or apply the process. Our protocol seeks to fill this gap by providing a dataflow guide and key decision points that summarise existing methods. This protocol was heavily used in published works from our own lab (twelve peer-reviewed journal publications). Briefly, we take as input the icEEG recordings and neuroimaging data from people with epilepsy who are undergoing evaluation for resective surgery. As final outputs, we obtain a normative icEEG map, comprising signal properties localised to brain regions. Optionally, we can also process new subjects through the same pipeline and obtain their z-scores (or centiles) in each brain region for abnormality detection and localisation. To date, a single, cohesive dataflow pipeline for generating normative icEEG maps, along with abnormality mapping, has not been created. 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引用次数: 0
摘要
规范映射是一个框架,用于映射与健康相关的变量的人口水平特征。它广泛应用于神经科学研究,但文献中缺乏不支持健康对照测量的模式的既定协议,例如颅内脑电图(icEEG)。icEEG规范图将使研究人员能够了解人口水平的大脑活动,并能够将个体数据与这些规范进行比较,以识别异常。目前,尚无将临床数据转化为规范的区域性icEEG图的标准化指南。论文经常引用不同的软件和大量的文章来总结这个冗长的方法,这使得其他研究人员很难理解或应用这个过程。我们的协议试图通过提供数据流指南和总结现有方法的关键决策点来填补这一空白。该方案在我们自己实验室发表的作品(12篇同行评议的期刊出版物)中大量使用。简而言之,我们将正在接受切除手术评估的癫痫患者的icEEG记录和神经成像数据作为输入。作为最终输出,我们获得了一个规范的icEEG图,包括局部大脑区域的信号属性。我们还可以选择通过相同的管道处理新的受试者,并获得他们在每个大脑区域的z分数(或百分位数),用于异常检测和定位。迄今为止,还没有创建一个单一的、内聚的数据流管道,用于生成规范的icEEG映射,以及异常映射。我们设想这个数据流指南不仅将增加对规范映射方法的理解和应用,而且还将提高该领域研究的一致性和质量。•由此产生的规范性地图可用于测试神经科学领域的广泛假设。•对Taylor et al.[1]和其他相关出版物[2-12]进行的规范映射研究中的方法进行了更详细的介绍。•提供灵活性:读者可以通过考虑整个协议中包含的关键决策点来定制最终输出。•涉及子管道,这可能对孤立的研究人员有用(即,icEEG电极定位和/或间隔段选择)。
From Bedside to Desktop: A Data Protocol for Normative Intracranial EEG and Abnormality Mapping.
Normative mapping is a framework used to map population-level features of health-related variables. It is widely used in neuroscience research, but the literature lacks established protocols in modalities that do not support healthy control measurements, such as intracranial electroencephalograms (icEEG). An icEEG normative map would allow researchers to learn about population-level brain activity and enable the comparison of individual data against these norms to identify abnormalities. Currently, no standardised guide exists for transforming clinical data into a normative, regional icEEG map. Papers often cite different software and numerous articles to summarise the lengthy method, making it laborious for other researchers to understand or apply the process. Our protocol seeks to fill this gap by providing a dataflow guide and key decision points that summarise existing methods. This protocol was heavily used in published works from our own lab (twelve peer-reviewed journal publications). Briefly, we take as input the icEEG recordings and neuroimaging data from people with epilepsy who are undergoing evaluation for resective surgery. As final outputs, we obtain a normative icEEG map, comprising signal properties localised to brain regions. Optionally, we can also process new subjects through the same pipeline and obtain their z-scores (or centiles) in each brain region for abnormality detection and localisation. To date, a single, cohesive dataflow pipeline for generating normative icEEG maps, along with abnormality mapping, has not been created. We envisage that this dataflow guide will not only increase understanding and application of normative mapping methods but will also improve the consistency and quality of studies in the field. Key features • Resultant normative maps can be used to test a broad range of hypotheses in the neuroscience field. • Provides a more detailed walkthrough of the methods in the normative mapping study conducted by Taylor et al. [1] and other related publications [2-12]. • Offers flexibility: readers can tailor the final output by considering key decision points included throughout the protocol. • Involves sub-pipelines, which may be useful to researchers in isolation (i.e., icEEG electrode localisation and/or interictal segment selection).