Repairing the in situ hybridization missing data in the hippocampus region by using a 3D residual U-Net model.
Tong WanChangping FuJiinbo PengJinling LuPengcheng LiJunJie ZhuoPublished in: Biomedical optics express (2024)
The hippocampus is a critical brain region. Transcriptome data provides valuable insights into the structure and function of the hippocampus at the gene level. However, transcriptome data is often incomplete. To address this issue, we use the convolutional neural network model to repair the missing voxels in the hippocampus region, based on Allen institute coronal slices in situ hybridization (ISH) dataset. Moreover, we analyze the gene expression correlation between coronal and sagittal dataset in the hippocampus region. The results demonstrated that the trend of gene expression correlation between the coronal and sagittal datasets remained consistent following the repair of missing data in the coronal ISH dataset. In the last, we use repaired ISH dataset to identify novel genes specific to hippocampal subregions. Our findings demonstrate the accuracy and effectiveness of using deep learning method to repair ISH missing data. After being repaired, ISH has the potential to improve our comprehension of the hippocampus's structure and function.
Keyphrases
- gene expression
- cerebral ischemia
- electronic health record
- deep learning
- big data
- convolutional neural network
- genome wide
- prefrontal cortex
- dna methylation
- cognitive impairment
- randomized controlled trial
- systematic review
- artificial intelligence
- single cell
- subarachnoid hemorrhage
- blood brain barrier
- machine learning
- white matter
- multiple sclerosis
- copy number
- risk assessment
- transcription factor