Fitting our model to the experimental data using Gnuplot (version 5.4), we inferred the model parameters.
Below is our bash command:
cd 001_fitting
gnuplot gscript_fitting_Fig3A.txt
mv 001_fitting/fit.log 001_fitting/fit_gscript_fitting_Fig3A.log
gnuplot gscript_fitting_Fig2AB.txt
mv 001_fitting/fit.log 001_fitting/fit_gscript_fitting_Fig2AB.log
The results are stored in 001_fitting/fit_gscript_fitting_Fig3A.log
and 001_fitting/fit_gscript_fitting_Fig2AB.log
.
We computed a bifurcation diagram of [TGFβ1] with respect to parameters for THBS1 and FMOD.
Below is our bash command:
cd 002_control_pq
bash aout_001.sh
bash aout_002.sh
gnuplot gscript_pq.txt
Also, we computed bifurcation diagrams of [THBS1], [FMOD], and [TGFβ1] with respect to a parameter for THBS1 by the following command:
cd 003_control_p_THBS1
bash aout_001.sh
bash aout_002.sh
gnuplot gscript_p.txt
Similarly, we computed bifurcation diagrams of [THBS1], [FMOD], and [TGFβ1] with respect to a parameter for FMOD by the following command:
cd 004_control_q_FMOD
bash aout_001.sh
bash aout_002.sh
gnuplot gscript_q.txt
Likewise, we computed bifurcation diagrams of endogenous [THBS1], [FMOD], and [TGFβ1] with respect to a parameter gamma for TGF-β1 using the following command:
cd 010_control_r_PDL
bash aout_001.sh
bash aout_002.sh
gnuplot gscript_r.txt
We computed distributions of [THBS1] and [FMOD] with respect to a parameters for THBS1.
Below is our bash command:
cd 020_stochastic_simulation_forK1
bash aout.sh
Similarly, we computed distributions of [THBS1] and [FMOD] with respect to a parameters for FMOD.
Below is our bash command:
cd 021_stochastic_simulation_forK2
bash aout.sh
Likewise, we computed distributions of endogenous [THBS1] and [FMOD] with respect to a parameter gamma for TGF-β1 using the following command:
cd 030_stochastic_simulation_forGamma
bash aout.sh