ASP-G
ASP-G simulates genetic regulatory networks (GRNs) using Boolean network models to compute attractors and explore alternative interaction rules and update schemes.
Key Features:
- Modularity: Built on Answer Set Programming (ASP) to provide a modular structure that enables modification and extension of model components.
- Declarative Framework: Employs a declarative programming paradigm in which researchers specify genes, interactions, and constraints rather than procedural steps.
- Flexibility in Assumptions: Allows testing of a wide range of interaction rules and update schemes instead of imposing fixed assumptions.
- Attractor Computation: Computes attractors of Boolean GRN models representing stable states or recurring patterns relevant to processes such as differentiation and homeostasis.
- Correctness and Validation: Validated by recapitulating known attractors reported in published studies.
- Efficiency: Trades some performance for declarative flexibility, enabling exploratory modeling across multiple assumptions.
Scientific Applications:
- Investigate Gene Interaction Dynamics: Explore how alternative interaction rules and update schemes affect network behavior and gene interaction outcomes.
- Identify Critical Network States: Use attractor computation to identify stable states and patterns relevant to cell cycle regulation, differentiation, and disease progression.
- Hypothesis Testing: Test hypotheses about gene interactions and network behavior under varied assumptions within a Boolean GRN framework.
Methodology:
ASP-G uses Answer Set Programming to simulate GRNs as Boolean network models by declaratively specifying genes, interactions, and update rules and computing attractors.
Topics
Collections
Details
- Tool Type:
- command-line tool
- Added:
- 5/17/2016
- Last Updated:
- 11/25/2024
Operations
Data Inputs & Outputs
Gene regulatory network analysis
Publications
Mushthofa M, Torres G, Van de Peer Y, Marchal K, De Cock M. ASP-G: an ASP-based method for finding attractors in genetic regulatory networks. Bioinformatics. 2014;30(21):3086-3092. doi:10.1093/bioinformatics/btu481. PMID:25028722. PMCID:PMC4609008.