Systems & Computational Biology
- A systems-based method to repurpose marketed therapeutics for antiviral use: a SARS-CoV-2 case study
This study describes complementary network-based and sequence similarity methods to identify drug repurposing opportunities predicted to directly target viral proteins, highlighting results for five human pathogens.
- A novel canis lupus familiaris reference genome improves variant resolution for use in breed-specific GWAS
This paper describes the economical optimization of DNA extraction, short and long read sequencing, and bioinformatic assembly, which in turn improves mapping and variant resolution of short-read sequenced, same-breed dogs for association studies. This methodology is applicable for any investigators planning a genome-wide association study.
- The Paf1 complex positively regulates enhancer activity in mouse embryonic stem cells
Using ChIP-seq and functional genomic analyses, the study shows that the Paf1 complex occupies transcriptional enhancers and positively regulates their activity.
- The RNA-binding profile of the splicing factor SRSF6 in immortalized human pancreatic β-cells
The RNA-binding protein SRSF6 recognizes a purine-rich consensus motif consisting of GAA triplets, and its downregulation in human pancreatic β-cells affects alternative splicing in a position-dependent manner.
- FIREWORKS: a bottom-up approach to integrative coessentiality network analysis
A tool to create bias-adjusted coessentiality networks reveals functional relationships between genes, context-specific rewiring of genetic networks, determinants of essentiality, and therapeutic targets for challenging proteins.
- Inhibiting the reproduction of SARS-CoV-2 through perturbations in human lung cell metabolic network
Using genomic and structural information from SARS-CoV-2, we created a biomass function capturing its amino and nucleic acid requirements and incorporated this into a metabolic model of the human lung cell to predict metabolic perturbations that inhibit virus reproduction.
- Gene selection for optimal prediction of cell position in tissues from single-cell transcriptomics data
We describe and provide an array of diverse methods to predict cellular positions in tissue from RNA-seq data selecting mapping genes according to their spatial/statistical properties and their effect on improving the cell positioning.
- Predicting gene regulatory networks from cell atlases
Integrated single-cell gene regulatory network from three mouse cell atlases captures global and cell type–specific regulatory modules and crosstalk, important for cellular identity.
- multicrispr: gRNA design for prime editing and parallel targeting of thousands of targets
A bioinformatics R package for a fast and generic guideRNA design, optimized for large-scale perturbation assays.
- Peptide-based quorum sensing systems in Paenibacillus polymyxa
Discovery of conserved communication systems in the agriculturally important Paenibacillus bacteria. These systems are widespread, and some species encode more than 25 different peptide-receptor pairs.