The gene expression profile of a cell can indicate the current status of the cell, such as its cell type, proliferation status, and degree of maturation or differentiation. The health of a cell in tissues is always in transition, such as diseased state (e.g., tumor cells), healthy state, and states in between. To fully understand and leverage the nature and pathways of cell states towards better diagnosis, treatment, and medical outcomes, it may be beneficial to forecast cell health as a function of certain gene-related configuration. Traditionally it has been difficult to predict ad hoc whole transcriptome alterations caused by gene-related perturbations.
To overcome this research challenge, investigators at UC Santa Cruz (UCSC) have developed a modeling framework to predict whole transcriptome alterations caused by perturbations. Building on the Variational Autoencoder (VAE) and certain RNA sequencing techniques, the UCSC researchers measure certain gene expression profile (transcriptome) with high precision and accuracy. These measurements correlate with certain transcription factor (TF) activity from the thousands of genes in a cell. By leveraging VAE’s deep learning means, UCSC’s in silico perturbation approach can use candidate TFs of interest to simulate genetic or chemical perturbations on TFs, resulting in the prediction gene expression alterations. Preliminary research results hold promise in terms of deploying efficient and powerful strategies for gene expression experimentation and profiling.
Country | Type | Number | Dated | Case |
Patent Cooperation Treaty | Published Application | WO 2024/025950 | 02/01/2024 | 2022-826 |
Additional Patent Pending
genetics, gene expression, transcriptome, Variational Autoencoder, VAE, drug discovery, transcription factor, perturbations, perturbation, gene perturbations, prediction, multiomics, multi-omics