Department of Medical Genetics, University of Helsinki, P.O. Box 720, 00014 University of Helsinki, Finland.
Department of Biosciences, University of Helsinki, P.O. Box 56, 00014 University of Helsinki, Finland.
Sci Rep. 2016 Dec 22;6:39707. doi: 10.1038/srep39707.
To obtain aggregate evidence for the molecular basis of musical abilities and the effects of music, we integrated gene-level data from 105 published studies across multiple species including humans, songbirds and several other animals and used a convergent evidence method to prioritize the top candidate genes. Several of the identified top candidate genes like EGR1, FOS, ARC, BDNF and DUSP1 are known to be activity-dependent immediate early genes that respond to sensory and motor stimuli in the brain. Several other top candidate genes like MAPK10, SNCA, ARHGAP24, TET2, UBE2D3, FAM13A and NUDT9 are located on chromosome 4q21-q24, on the candidate genomic region for music abilities in humans. Functional annotation analyses showed the enrichment of genes involved in functions like cognition, learning, memory, neuronal excitation and apoptosis, long-term potentiation and CDK5 signaling pathway. Interestingly, all these biological functions are known to be essential processes underlying learning and memory that are also fundamental for musical abilities including recognition and production of sound. In summary, our study prioritized top candidate genes related to musical traits.
为了获得音乐能力和音乐影响的分子基础的综合证据,我们整合了来自包括人类、鸣禽和其他几种动物在内的 105 项已发表研究的基因水平数据,并使用收敛证据方法来确定顶级候选基因。已确定的一些顶级候选基因,如 EGR1、FOS、ARC、BDNF 和 DUSP1,是已知的对大脑中的感觉和运动刺激做出反应的活性依赖性早期基因。其他一些顶级候选基因,如 MAPK10、SNCA、ARHGAP24、TET2、UBE2D3、FAM13A 和 NUDT9,位于人类音乐能力候选基因组区域的 4q21-q24 染色体上。功能注释分析显示,与认知、学习、记忆、神经元兴奋和细胞凋亡、长时程增强和 CDK5 信号通路等功能相关的基因富集。有趣的是,所有这些生物学功能都被认为是学习和记忆的基本过程,而学习和记忆也是包括声音识别和产生在内的音乐能力的基础。总之,我们的研究确定了与音乐特征相关的顶级候选基因。