%0 Journal Article %1 Wang:2019:Front-Physiol:30930788 %A Wang, W %A Wang, G Z %D 2019 %J Front Physiol %K brain fulltext review rna-seq shouldread %P 214-214 %R 10.3389/fphys.2019.00214 %T Understanding Molecular Mechanisms of the Brain Through Transcriptomics %U https://www.ncbi.nlm.nih.gov/pubmed/30930788 %V 10 %X The brain is the most complicated organ in the human body with more than ten thousand genes expressed in each region. The molecular activity of the brain is divergent in various brain regions, both spatially and temporally. The function of each brain region lies in the fact that each region has different gene expression profiles, the possibility of differential RNA splicing, as well as various post-transcriptional and translational modification processes. Understanding the overall activity of the brain at the molecular level is essential for a comprehensive understanding of how the brain works. Fortunately, the development of next generation sequencing technology has made it possible to measure the molecular activity of a specific tissue as a daily routine approach of research. Therefore, at the molecular level, the application of sequencing technology to investigate the molecular organization of the brain has become a novel field, and significant progress has been made recently in this field. In this paper, we reviewed the major computational methods used in the analysis of brain transcriptome, including the application of these methods to the research of human and non-human mammal brains. Finally, we discussed the utilization of transcriptome methods in neurological diseases.

@article{Wang:2019:Front-Physiol:30930788, abstract = {The brain is the most complicated organ in the human body with more than ten thousand genes expressed in each region. The molecular activity of the brain is divergent in various brain regions, both spatially and temporally. The function of each brain region lies in the fact that each region has different gene expression profiles, the possibility of differential RNA splicing, as well as various post-transcriptional and translational modification processes. Understanding the overall activity of the brain at the molecular level is essential for a comprehensive understanding of how the brain works. Fortunately, the development of next generation sequencing technology has made it possible to measure the molecular activity of a specific tissue as a daily routine approach of research. Therefore, at the molecular level, the application of sequencing technology to investigate the molecular organization of the brain has become a novel field, and significant progress has been made recently in this field. In this paper, we reviewed the major computational methods used in the analysis of brain transcriptome, including the application of these methods to the research of human and non-human mammal brains. Finally, we discussed the utilization of transcriptome methods in neurological diseases.}, added-at = {2020-01-22T22:22:58.000+0100}, author = {Wang, W and Wang, G Z}, biburl = {https://www.bibsonomy.org/bibtex/2cb02a1deecd53364b50bd0607eadad0e/marcsaric}, description = {Understanding Molecular Mechanisms of the Brain Through Transcriptomics. - PubMed - NCBI}, doi = {10.3389/fphys.2019.00214}, interhash = {d1204364061a3248abfe660779a54505}, intrahash = {cb02a1deecd53364b50bd0607eadad0e}, journal = {Front Physiol}, keywords = {brain fulltext review rna-seq shouldread}, pages = {214-214}, pmid = {30930788}, timestamp = {2020-01-22T22:22:58.000+0100}, title = {Understanding Molecular Mechanisms of the Brain Through Transcriptomics}, url = {https://www.ncbi.nlm.nih.gov/pubmed/30930788}, volume = 10, year = 2019 }