SKiMpy

SKiMpy provides semiautomatic generation, parameterization, and analysis of large-scale kinetic models to study dynamic and adaptive responses in signaling pathways, gene expression networks, metabolic processes, and multispecies bioreactor systems.


Key Features:

  • Efficient Kinetic Modeling: SKiMpy performs semiautomatic generation of large-scale kinetic models for signaling pathways, gene expression networks, and metabolic processes.
  • Parameterization Around Steady-State Reference: SKiMpy parameterizes kinetic models around a steady-state reference to enable analysis of deviations from equilibrium.
  • Multispecies Bioreactor Simulations: SKiMpy simulates multispecies interactions in bioreactors for assessment of biotechnological processes such as fermentation and waste treatment.
  • Python 3 Implementation: SKiMpy is provided as a Python 3 package for computational construction, parameterization, and simulation of kinetic models.

Scientific Applications:

  • Signaling Pathways: Model complex signaling networks to study temporal cellular responses to stimuli.
  • Gene Expression Networks: Explore gene regulatory mechanisms and the dynamics of gene activation and repression.
  • Metabolic Processes: Analyze metabolic pathway dynamics and predict effects of changes in enzyme activities or metabolite concentrations.
  • Biotechnological Process Assessment: Assess and optimize multispecies bioreactor processes, including fermentation and waste treatment.

Methodology:

Semiautomatic generation of kinetic models, parameterization around steady-state references, and simulation of multispecies bioreactors implemented in Python 3.

Topics

Details

License:
Apache-2.0
Cost:
Free of charge
Tool Type:
library
Operating Systems:
Mac, Linux, Windows
Programming Languages:
Python
Added:
9/17/2022
Last Updated:
11/24/2024

Operations

Publications

Weilandt DR, Salvy P, Masid M, Fengos G, Denhardt-Erikson R, Hosseini Z, Hatzimanikatis V. Symbolic Kinetic Models in Python (SKiMpy): Intuitive modeling of large-scale biological kinetic models. Unknown Journal. 2022. doi:10.1101/2022.01.17.476618.