Anatomical and behavioural correlates of auditory perception in developmental dyslexia

IF 10.6 1区 医学 Q1 CLINICAL NEUROLOGY Brain Pub Date : 2024-09-19 DOI:10.1093/brain/awae298
Ting Qi, Maria Luisa Mandelli, Christa L Watson Pereira, Emma Wellman, Rian Bogley, Abigail E Licata, Zachary Miller, Boon Lead Tee, Jessica de Leon, Edward F Chang, Yulia Oganian, Maria Luisa Gorno-Tempini
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Abstract

Developmental dyslexia is typically associated with difficulties in basic auditory processing and in manipulating speech sounds. However, the neuroanatomical correlates of auditory difficulties in developmental dyslexia (DD) and their contribution to individual clinical phenotypes are still unknown. Recent intracranial electrocorticography findings associated processing of sound amplitude rises and speech sounds with posterior and middle superior temporal gyrus (STG), respectively. We hypothesize that regional STG anatomy will relate to specific auditory abilities in DD, and that auditory processing abilities will relate to behavioral difficulties with speech and reading. One hundred and ten children (78 DD, 32 typically developing, age 7-15 years) completed amplitude rise time and speech in noise discrimination tasks. They also underwent a battery of cognitive tests. Anatomical MRI scans were used to identify regions in which local cortical gyrification complexity correlated with auditory behavior. Behaviorally, amplitude rise time but not speech in noise performance was impaired in DD. Neurally, amplitude rise time and speech in noise performance correlated with gyrification in posterior and middle STG, respectively. Furthermore, amplitude rise time significantly contributed to reading impairments in DD, while speech in noise only explained variance in phonological awareness. Finally, amplitude rise time and speech in noise performance were not correlated, and each task was correlated with distinct neuropsychological measures, emphasizing their unique contributions to DD. Overall, we provide a direct link between the neurodevelopment of the left STG and individual variability in auditory processing abilities in neurotypical and dyslexic populations.
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发育性阅读障碍患者听觉感知的解剖和行为相关性
发育性诵读困难通常与基本听觉处理和语音操作困难有关。然而,发育性阅读障碍(DD)中听觉障碍的神经解剖相关性及其对个体临床表型的影响仍不得而知。最近的颅内皮层电图发现,声音振幅上升和语音的处理分别与颞上回(STG)的后部和中部有关。我们假设,STG 的区域解剖与 DD 的特定听觉能力有关,而听觉处理能力则与言语和阅读方面的行为障碍有关。110名儿童(78名聋哑儿童,32名发育正常儿童,年龄7-15岁)完成了振幅上升时间和噪音中语音辨别任务。他们还接受了一系列认知测试。解剖磁共振成像扫描用于确定局部皮层回旋复杂性与听觉行为相关的区域。从行为上看,聋哑人的振幅上升时间受损,但噪音中的语音表现却没有受损。从神经角度看,振幅上升时间和噪音中的语音表现分别与后部和中部 STG 的回旋相关。此外,振幅上升时间在很大程度上导致了 DD 的阅读障碍,而噪音中的言语只能解释语音意识的差异。最后,振幅上升时间和噪音中的语音表现不相关,每项任务都与不同的神经心理学测量相关,强调了它们对 DD 的独特贡献。总之,我们提供了左侧 STG 神经发育与神经畸形和阅读障碍人群听觉处理能力个体差异之间的直接联系。
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来源期刊
Brain
Brain 医学-临床神经学
CiteScore
20.30
自引率
4.10%
发文量
458
审稿时长
3-6 weeks
期刊介绍: Brain, a journal focused on clinical neurology and translational neuroscience, has been publishing landmark papers since 1878. The journal aims to expand its scope by including studies that shed light on disease mechanisms and conducting innovative clinical trials for brain disorders. With a wide range of topics covered, the Editorial Board represents the international readership and diverse coverage of the journal. Accepted articles are promptly posted online, typically within a few weeks of acceptance. As of 2022, Brain holds an impressive impact factor of 14.5, according to the Journal Citation Reports.
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