==================== Phenotype Simulation ==================== Stoichiometric Simulation -------------------------- The phenotype simulation of stoichiometric metabolic models are out of scope of this package. For the phenotype prediction prupose, you can use the available methods on *framed* package, developed by Daniel Machado. For more information see: GitHub: https://github.com/cdanielmachado/framed GECKO Simulation -------------------------- The phenotype simulation of GECKO metabolic models are out of scope of this package. The GECKO toolbox contains a Python package(geckopy) for enhancing a Genome-scale model to account for Enzyme Constraints, using Kinetics and Omics. ics data. For more information see: GitHub:https://github.com/SysBioChalmers/GECKO Kinetic Simulation ------------------ *optimModels* implements some basic support for working with kinetic models. It now also supports models that contain assignment rules (see for example the `Chassagnole 2002 `_ *E. coli* model). Wild-type simulation ~~~~~~~~~~~~~~~~~~~~~~ Running a simple steady state simulation (uses odespy package, LSODA method): :: from optimModels import kinetic_simulation result = kinetic_simulation(model) result.print() Simulation with diferent parameters ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ It is possible override model parameters without changing the model: :: result = kinetic_simulation(model, parameters = {'Dil' : 0.2/3600}) result.print() Knockouts simulation ~~~~~~~~~~~~~~~~~~~~~ The simulation of reaction knockouts is done by multiplying vMax parameter with the factor 0, for instance maxG6PDH = 0 will be knockout the reaction vG6PDH: :: result = kinetic_simulation(model, factors={'maxG6PDH': 0.0}) result.print() Under/Over expression simulation ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ The simulation of under (over) expression enzymes is done by multiplying vMax parameter with the factor less than 1 (higher than 1) :: result = kinetic_simulation(model, factors={'maxG6PDH': 2.0}) result.print()