This article addresses the critical challenge of extracting robust and meaningful information from limited molecular datasets, a common bottleneck in early-stage drug discovery.
Accurately predicting direct regulatory interactions, such as those between drugs and targets or transcription factors and genes, is fundamental to accelerating drug discovery and understanding disease mechanisms.
Inference of Gene Regulatory Networks (GRNs) from single-cell RNA sequencing (scRNA-seq) data is fundamentally challenged by pervasive technical variation, notably zero-inflation or 'dropout' events, where true gene expression is erroneously...
Predicting transcription factor (TF)-gene interactions in complex organisms is fundamental to understanding gene regulation, yet it remains challenging due to biological complexity and technical limitations.
The PHLOWER method represents a significant advance in computational trajectory inference, leveraging the harmonic component of the Hodge decomposition on simplicial complexes to reconstruct complex, multi-branching cell differentiation trees from...
This article provides a comprehensive overview of cutting-edge computational models for simulating Gene Regulatory Network (GRN) structure and predicting the effects of genetic perturbations.
This comprehensive review explores the transformative application of PageRank algorithms in identifying key regulator genes within complex biological networks.
This article explores the paradigm of information maximization as a guiding principle for optimizing parameters in Drosophila melanogaster Gene Regulatory Networks (GRNs).
This article provides a comprehensive exploration of network-based approaches for integrating multi-omics data, addressing critical needs across the research pipeline.
This article explores the cutting-edge application of gravity-inspired graph autoencoders (GIGAE) for reconstructing directed Gene Regulatory Networks (GRNs) from single-cell RNA sequencing data.