Searching journal content for articles similar to Lu and Keleş 33 (6): 932.

Displaying results 1-10 of 6107
For checked items
  1. ..., Canberra 2601, Australia; 3Bioinformatics and Cellular Genomics, St Vincent’s Institute, Fitzroy, Victoria 3065, Australia Gene networks provide a fundamental framework for understanding the molecular mechanisms that govern gene expression. Advances in single-cell RNA sequencing (scRNA-seq) have enabled...
  2. ...can be divided into two types. Their major difference lies in the way to process the raw omics features. The first type of methods directly uses gene expression count data from scRNA-seq and peak count data from scATAC-seq as input to the model, and uses omics-specific neural networks to embed them...
  3. ...the global architecture information within a GRN and generates a corresponding network structure from scRNA-seq data. As a highly adaptable and flexible tool, DigNet necessitates merely single-cell gene expression profiles to iteratively generate a GRN from a random starting point. The extracted structure...
  4. ...-transformed along with gene-specific and sample-specific filters. Based on the data source, normalized gene expression was processed to merge replicates and exclude miRNA and scRNA-seq samples. (B) Number of samples which were annotated to be noncancerous and cancerous based on available metadata across GTEx, SRA...
  5. ...equally to this work. Corresponding author: johnq@hsph.harvard.eduAbstractGene regulatory networks (GRNs) are effective tools for inferring complex interactions between molecules that regulate biological processes and hence can provide insights into drivers of biological systems. Inferring coexpression...
  6. ...)). The Giraffe workflows use graph-based alignment against either a linear reference, a population-scale pan, or a sample-specific diploid graph, whereas LevioSAM2 performs coordinate lifting and alignment on impute-first personalized diploid references. For the Giraffe(diploid) workflow, the sample...
  7. ...) for supervised link prediction in GRN inference, leveraging scRNA-seq data and existing regulatory information to predict latent TF–gene interactions. Similarly, Grace (Wang et al. 2024a) integrates structural causal models with graph neural networks to infer both GRNs and gene causality from scRNA-seq data...
  8. ...clusters (Supplemental Table S3). The high efficiency of cell fate changes by inducing TFs was also observed in a few validation cases in the recent scRNA-seq-based single TF overexpression screen (>80% efficiency confirmed through testing reporter gene expression) (Ng et al. 2021). We found many...
  9. ..., we performed weighted gene coexpression network analysis (WGCNA) across four tissues (Supplemental Fig. S8A). The analysis revealed that LOC101800576 and LOC101790890 were assigned to the shell gland ME3 module, GLP2R to the spleen ME7 module, and LOC119713219 to the ovary ME6 module (Supplemental...
  10. ..., this is not because of differences in expression levels, as the gene on which the edit is located (Htra1) is expressed in all involved clusters.Overall, this constitutes evidence that RNA-editing events may be seen in Chromium scRNA-seq libraries and used to infer heterogeneous presentation of RNA editing. Although...
For checked items

Preprint Server