Life is an organized arrangement of cells, but any individual cell struggles to function independently once detached from a living organism. Therefore, a comprehensive understanding of cell functionality requires considering the microenvironment and spatial location in which cells exist. The rapid development of spatial omics technology greatly facilitates the study of cell function at the Read more about An accurate computational method for cross-platform, multi-modal spatial omics alignment and integration.[…]

Through the process of transcription and translation, protein-coding genes (hereinafter referred to as genes) can guide the synthesis of proteins that are crucial to life activities, and then affect the physiological or pathological traits of living organisms. Thus, genes are the basic functional units in cells. Research in the past decades has shown that in Read more about Mol. Biol. Evol. | Genome-wide identification of gene loss events suggests loss relics as a potential source of functional lncRNAs in humans[…]

The GLUE study (Multi-omics single-cell data integration and regulatory inference with graph-linked embedding) published in Nature Biotechnology was recently awarded by Genomics, Proteomics and Bioinformatics (GPB) as China’s top ten bioinformatics advances of 2022.   With rapid advances in recent years, single-cell omics technologies have become essential tools for studying cellular function and gene regulation. Read more about GLUE for China’s top ten bioinformatics advances of 2022[…]

Nat. Biotechnol. | An accurate and robust computational method for single-cell multi-omics integration and regulatory inference Gene transcription is a key link in the central dogma of biology. Compared to the relative static genome, the transcriptome exhibits substantial changes across different tissues, organs and developmental stages, forming crucial biological basis for the physiological and pathological Read more about Nat. Biotechnol. | An accurate and robust computational method for single-cell multi-omics integration and regulatory inference[…]

Gene transcription and protein translation are two key steps of the “central dogma”. Cells often response to disease and environment stress via transcriptional and translational control. Meanwhile, besides coding proteins, RNAs could function as noncoding molecules. Benefitting from bioinformatics and computational genomics methods, it is possible to quantitatively de-convolute factors contributing to translational control in Read more about RiboCalc: Quantitative model suggests both intrinsic and contextual features contribute to the transcript coding ability determination in cells[…]

ShiQi Yang is the first staff join us via the changping lab. Warmly welcome!

Welcome XianYi Lian to join the Gao lab. Congratulation her on winning the Peking University Boya Postdoctoral Fellowship!

Approximately 97% of the human genome is noncoding. While more than 90% of disease- and trait-associated variants are noncoding variants, their biological functions and mechanisms remain largely elusive.   Recently, Gao Lab from Biomedical Pioneering Innovation Center (BIOPIC), Beijing Advanced Innovation Center for Genomics (ICG), Center for Bioinformatics (CBI), and State Key Laboratory of Protein Read more about REVA: Systematical curation and evalutation for human expression-modulating variants[…]

Well done, Dr. Shi! Wish you more success and prosperity in days to come!

On July 6th, 2021, Gao Lab from Biomedical Pioneering Innovation Center (BIOPIC) and Beijing Advanced Innovation Center for Genomics (ICG) published a research article named “Identifying complex motifs in massive omics data with a variable-convolutional layer in deep neural network” on Briefings in Bioinformatics, proposing a novel convolutional layer for deep neural networks.   Deep Read more about A novel convolutional layer with adaptive kernels for effective mining complex patterns in omics data.[…]