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Rapid and Efficient Spatiotemporal Monitoring of Normal and Aberrant Cytosine Methylation within Intact Zebrafish Embryos
Published on: August 18, 2022
DMRU: generative deep learning to unravel condition-specific cytosine methylation in plants
Sagar Gupta1,2, Anchit Kumar1, Veerbhan Kesarwani1,2
1Studio of Computational Biology & Bioinformatics, The Himalayan Centre for High-throughput Computational Biology (HiCHiCoB, A BIC supported by DBT, India), Biotechnology Division, CSIR-Institute of Himalayan Bioresource Technology (CSIR-IHBT), Palampur, HP 176061, India.
Abstract:
Methylation at cytosines in plants influences spatiotemporal gene expression by regulating chromatin structure and accessibility. Some algorithms have been developed to profess DNA methylation, but none of them are capable to tell the condition-specific DNA methylation, making them hardly of any use. Here, we report a first of its kind an explainable Deep Encoders-Decoders generative system, DNA Methylation Recognition Unit (DMRU), which learns the relationship between transcriptome status and DNA methylation states at any given time. It was also found that GC similarity is more relevant to the specificity of DNA methylation patterns than homology, concurring with reports of direct involvement of GC content in providing regulatory switches for DNA accessibility. Leveraging which DMRU could perform with same level of accuracy in a cross-species universal manner. In a comprehensive testing and benchmarking study across a huge volume of experimental data covering 85 different conditions and multiple plant species, it has consistently achieved >90% accuracy. With this all, DMRU brings a completely new chapter in methylated cytosine discovery, giving a strong alternative to costly bisulfite sequencing experiments. DMRU may prove a critical turning point in plant regulatory research and its acceleration.
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