work_dir2 = os.path.join(data_dir,'models','h-format')
if not os.path.exists(work_dir2):
os.makedirs(work_dir2)
if sbml_level == 3:
print('Trying level 3')
cmod = CBRead.readSBML3FBC(model_file, work_dir=model_dir)
else:
cmod = CBRead.readSBML2FBA(model_file, work_dir=model_dir)
cmod.id = model_name
print('\nAttempting to delete bounds for biomass reaction,', cmod.getActiveObjective().getFluxObjectiveReactions()[0])
cmod.deleteBoundsForReactionId(cmod.getActiveObjective().getFluxObjectiveReactions()[0])
mLP = slv.analyzeModel(cmod, return_lp_obj=True)
CBWrite.printFBASolution(cmod)
tmp_mid = cmod.id+'_cplex'
CBTools.countedPause(1)
cmod.id = tmp_mid
print('\n{0:d}\n'.format(len(cmod.flux_bounds)) )
cmod.changeAllFluxBoundsWithValue(inf_bound, 'Infinity')
cmod.changeAllFluxBoundsWithValue(-inf_bound, '-Infinity')
cmod.changeAllFluxBoundsWithValue(numpy.inf, 'Infinity')
cmod.changeAllFluxBoundsWithValue(-numpy.inf, '-Infinity')
print('\n{0:d}\n'.format(len(cmod.flux_bounds)) )
slv.analyzeModel(cmod, lpFname=os.path.join(work_dir2, cmod.id), oldlpgen=False)
from pyscescbm.CBVersion import __DEBUG__, __version__
from pyscescbm import CBRead, CBWrite, CBTools
from pyscescbm import CBSolver as slv
work_dir = os.path.join(cDir, work_dir)
if not os.path.exists(work_dir):
os.mkdir(work_dir)
if sbml_level == 3:
print('Trying level 3')
cmod = CBRead.readSBML3FBC(model_file, work_dir=model_dir)
else:
cmod = CBRead.readSBML2FBA(model_file, work_dir=model_dir)
cmod.id = model_name
slv.analyzeModel(cmod, lpFname=os.path.join(work_dir, 'raw_({0:s})'.format(cmod.id)))
# scan for duplicates
print('\nScan for duplicates')
dup_C = CBTools.scanForReactionDuplicates(cmod, ignore_coefficients=False)
print('\nReaction pairs with matching reagents and coefficients: {0:d}'.format( len(dup_C) ))
for d in dup_C:
print('{0:s} == {1:s} ({2:s})'.format(d[0],d[1],d[2]))
# write duplicate reactions to file
F = open(os.path.join(model_dir,'{0:s}.duplicates.csv'.format(model_file)),'w')
F.write('Model file: {0:s},,,,\n'.format( model_file) )
F.write('Duplicate reactions pairs: {0:d},,,,\n'.format( len(dup_C) ) )
for d in dup_C:
F.write('\"{0:s}\",\"{1:s}\",\"{2:s}\",\"{3:s}\",\"{4:s}\"\n'.format(d[0],d[1],d[2],d[3],d[4]))
F.write('\n')