| name | computational-biology |
| description | Computational modeling of biological systems |
| license | MIT |
| compatibility | opencode |
| metadata | {"audience":"computational biologists, researchers, modelers","category":"biology"} |
What I do
- Build computational models of biological systems
- Simulate cellular processes and pathways
- Analyze high-throughput biological data
- Predict gene regulatory networks
- Model population dynamics and evolution
- Develop algorithms for biological sequence analysis
When to use me
- When building mathematical models of biological systems
- When simulating cellular signaling pathways
- When analyzing omics data (genomics, proteomics)
- When modeling disease progression
- When predicting gene regulatory networks
- When studying evolutionary dynamics
Key Concepts
Modeling Approaches
Deterministic Models
- Ordinary differential equations (ODEs)
- Partial differential equations (PDEs)
- Boolean networks
- Petri nets
Stochastic Models
- Gillespie algorithm
- Markov chains
- Monte Carlo simulations
- Agent-based models
Gene Regulatory Networks
def gene_expression(mRNA, protein, params):
"""
Model basic gene expression.
k_tx: transcription rate
k_tl: translation rate
d_m: mRNA degradation rate
d_p: protein degradation rate
"""
dm_dt = params['k_tx'] - params['d_m'] * mRNA
dp_dt = params['k_tl'] * mRNA - params['d_p'] * protein
return dm_dt, dp_dt
Popular Tools
- COPASI: Biochemical simulation
- PySB: Rule-based modeling
- BioNetGen: Rule-based network generation
- MCell: Monte Carlo cell simulation
- Smoldyn: Spatial stochastic simulation
- R/Bioconductor: Statistical analysis