forked from lanl/PyFEHM
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pyfehm_unittest.py
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pyfehm_unittest.py
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print('Testing imports')
from fdata import*
# test reading of internode fluxes
ndflx = fnodeflux('run.internode_fluxes.out')
# test pyfehm capabilities
path = fpath()
path.filename = 'test.py'
print(path.filename)
print(path.absolute_to_file)
print(path.full_path)
print('')
path.filename = '/test/test.py'
print(path.filename)
print(path.absolute_to_file)
print(path.full_path)
print('')
path.filename = 'c:\\test\\test.py'
print(path.filename)
print(path.absolute_to_file)
print(path.full_path)
print('')
def test_grid(geo):
geo = fgrid()
geo.read('mesh_avs.avs')
x = np.linspace(0,10,11)
geo.make('pyfehm_unittest_GRID.inp',x=x,y=x,z=x)
if not os.path.isfile('pyfehm_unittest_GRID.inp'): print('where is file?'); return False
xs = np.sort(np.unique([nd.position[0] for nd in geo.nodelist]))
ys = np.sort(np.unique([nd.position[1] for nd in geo.nodelist]))
zs = np.sort(np.unique([nd.position[2] for nd in geo.nodelist]))
if len(geo.nodelist) != 1331: print('not enough nodes'); return False
for x1,x2 in zip(x,xs):
if x1 != x2: print('x node in wrong place'); return False
for x1,x2 in zip(x,ys):
if x1 != x2: print('y node in wrong place'); return False
for x1,x2 in zip(x,zs):
if x1 != x2: print('z node in wrong place'); return False
geo.read('pyfehm_unittest_GRID.inp',full_connectivity = True)
xL,yL,zL = len(xs), len(ys), len(zs)
nd6 = []; nd5 = []; nd4 = []; nd3 = []
for nd in geo.nodelist:
if len(nd.connected_nodes) == 6: nd6.append(nd)
if len(nd.connected_nodes) == 5: nd5.append(nd)
if len(nd.connected_nodes) == 4: nd4.append(nd)
if len(nd.connected_nodes) == 3: nd3.append(nd)
if len(nd3) != 8: print('wrong number corner nodes'); return False
if len(nd4) != ((xL-2)+(yL-2)+(zL-2))*4: print('wrong number edge nodes'); return False
if len(nd5) != ((xL-2)*(yL-2)+(yL-2)*(zL-2)+(xL-2)*(zL-2))*2: print('wrong number face nodes'); return False
if len(nd6) != (xL-2)*(yL-2)*(zL-2): print('wrong number internal nodes'); return False
x,y,z = geo.node_nearest_point([5.8,5.8,5.8]).position
if x!=6. or y!=6. or z!=6.: print('node nearest point failed'); return False
geo.what
geo.plot(save='pyfehm_grid_unit.png',color='r',cutaway = 'middle', angle=[25,45])
os.system('del pyfehm_grid_unit.png')
return True
def test_input():
# create from scratch
dat = fdata()
x = np.linspace(0,10,11)
dat.grid.make('pyfehm_unittest_GRID.inp',x=x,y=x,z=x)
#dat.grid.lagrit_stor(overwrite=True)
dat.grid.what
# zone creation
# 1. rect
zn = fzone(index=1,name='zone1')
zn.rect([1,1,1],[2,2,2])
dat.add(zn)
dat.zone[1].what
if len(dat.zone['zone1'].nodelist) != 8: print('rect zone wrong number of nodes'); return False
dat.delete(dat.zonelist[-1])
# 2. nodelist
zn = fzone(1,nodelist=5)
dat.add(zn)
dat.delete(dat.zonelist[-1])
zn = fzone(1,nodelist=[5,8])
dat.add(zn)
dat.delete(dat.zonelist[-1])
nd1,nd2 = dat.grid.node[12],dat.grid.node[13]
nd1.what
dat.add(fzone(1,nodelist=nd1))
dat.add(fzone(1,nodelist=nd1))
dat.add(fzone(1,nodelist=nd1),overwrite=True)
dat.delete(dat.zonelist[-1])
dat.add(fzone(1,nodelist=[nd1,nd2]))
dat.delete(dat.zonelist[-1])
# 3. new_zone()
dat.new_zone(1,'hi',rect=[[2.,2.,2.],[3.,3.,3.]],permeability = 1.e-14, density = 2500., porosity = 0.1, specific_heat = 800.,
Pi = 1., Ti = 50., youngs_modulus = 10.e3, poissons_ratio = 1., thermal_expansion = 1., pressure_coupling = 1.)
if dat.zone[1].permeability != 1.e-14: print('perm error'); return False
if dat.zone[1].density != 2500.: print('density error'); return False
if dat.zone[1].specific_heat != 800.: print('spec heat error'); return False
if dat.zone[1].porosity != 0.1: print('por error'); return False
if dat.zone[1].Pi != 1.: print('Pi error'); return False
if dat.zone[1].Ti != 50.: print('Ti error'); return False
if dat.zone[1].youngs_modulus != 10.e3: print('youngs mod error'); return False
if dat.zone[1].poissons_ratio != 1.: print('poissons ratio error'); return False
if dat.zone[1].thermal_expansion != 1.: print('alpha error'); return False
if dat.zone[1].pressure_coupling != 1.: print('biot error'); return False
dat.new_zone(1,'hi',nodelist = 5)
dat.new_zone(1,'hi',nodelist = 5,overwrite=True)
dat.new_zone(1,'hi',nodelist = [nd1,nd2],permeability =[1.e-14,2.e-14,1.e-14], density = 2500., Pi = 1., youngs_modulus = 1., thermal_expansion = 1.,
overwrite=True)
#dat.delete(dat.zonelist[-1])
# macro creation
dat.zone[0].permeability = 1.e-14
dat.add(fmacro('cond',zone=0,param=(('cond_x',1.),('cond_y',1.),('cond_z',1.))))
dat.add(fmacro('rock',zone=0,param=(('density',2500.),('porosity',.1),('specific_heat',800.))))
dat.add(fmacro('elastic',zone=0,param=(('youngs_modulus',1.),('poissons_ratio',1.))))
dat.add(fmacro('biot',zone=0,param=(('pressure_coupling',1.),('thermal_expansion',1.))))
dat.add(fmacro('flow',zone=0,param=(('rate',1.),('energy',1.),('impedance',1.))))
dat.add(fmacro('grad',zone=0,param=(('reference_coord',0),('direction',3),
('variable',1),('reference_value',1),('gradient',-9.81*1e3/1e6))))
dat.add(fmacro('grad',zone=0,param=(('reference_coord',0),('direction',3),
('variable',2),('reference_value',1),('gradient',-0.04))))
dat.add(fmacro('co2frac',param=(('water_rich_sat',1.),('co2_rich_sat',0.),('co2_mass_frac',0.),
('init_salt_conc',0.),('override_flag',1))))
dat.add(fmacro('co2pres',param=(('pressure',1),('temperature',1),('phase',1))))
dat.add(fmacro('co2flow',zone=1,param=(('rate',1),('energy',1),('impedance',1),('bc_flag',1))))
dat.add(fmacro('co2flow',zone=1,param=(('rate',1),('energy',1),('impedance',1),('bc_flag',1))))
dat.add(fmacro('co2flow',zone='hi',param=(('rate',1),('energy',1),('impedance',1),('bc_flag',1))))
dat.add(fmacro('co2flow',zone=1,param=(('rate',1),('energy',1),('impedance',1),('bc_flag',1))),overwrite=True)
dat.carb.on(iprtype = 3)
dat.strs.on()
dat.nfinv = True
dat.nobr = True
dat.adif = 200.
#output stuff
dat.hist.variables.append(['flow','temperature'])
dat.hist.format = 'surf'
dat.hist.nodelist.append(4)
dat.hist.nodelist.append(nd1)
dat.cont.variables.append(['xyz','pressure'])
dat.cont.format = 'surf'
dat.flxo.append((2,5))
dat.flxo.append((dat.grid.node[8],10))
dat.flxo.append((dat.grid.node[8],dat.grid.node[15]))
dat.add(fmacro('stressboun',zone=1,subtype='fixed',param=(('direction',1),('value',0))))
dat.add(fboun(type='ti_linear',zone=1,times=[1,2,3],variable=[['ft']+[2,3,4,],['pw']+[4,5,6]]))
# rlp stuff
rlp = fmodel('rlp',index=17,param=[.05,1,1,0,1,1,0,0,1,1,1,0,1,0])
dat.add(rlp)
newrlpm = frlpm_table(group=2,zone=dat.zone[0])
s = np.linspace(0,1,11)
newrlpm.saturation = s
Smin = 0.2
rlp_w = ((s-Smin)/(1-Smin))**3.1
rlp_w[np.where(s<Smin)[0]] = 0.
rlp_c = 0.8*((1-s)/(1-Smin))**3.1
rlp_c[np.where(s<Smin)[0]] = 0.8
newrlpm.phase1 = ['water',rlp_w]
newrlpm.phase2 = ['co2_liquid',rlp_c]
newrlpm.capillary = np.zeros((1,len(s)))[0]
dat.add(newrlpm)
# other models
rlp = fmodel('vcon',index=1,param=[1.,1.,1.])
dat.add(rlp)
rlp = fmodel('ppor',index=1,zonelist = 1, param=(('compressibility',1)))
dat.add(rlp)
pm = fmodel('permmodel',index=25)
pm.zonelist=dat.zone[1]
pm.param['shear_frac_tough'] = 1.
pm.param['static_frict_coef'] = 1.
pm.param['dynamic_frict_coef'] = 1.
pm.param['frac_num'] = 1.
pm.param['onset_disp'] = 1.
pm.param['disp_interval'] = 1.
pm.param['max_perm_change'] = 1.
pm.param['frac_cohesion'] = 1.
dat.add(pm)
dat.zone[0].what
print('test writing')
dat.write('pyfehm_unittest_INPUT.dat')
print('test reading')
dat0 = fdata('pyfehm_unittest_INPUT.dat','pyfehm_unittest_GRID.inp')
# test run
dat.tf = 1.
dat.dtn = 1.
dat.dtx = 1.5
dat.dti = 1.
dat.dtmax = 2.
dat.dtmin = 0.1
dat.change_timestepping(10.)
dat.change_timestepping(20.)
dat.change_timestepping(30.,new_dti = .1)
dat.change_timestepping(40.,new_dtmax = 10.)
dat.change_timestepping(50.,new_dtx = 1.1)
dat.change_timestepping(60.)
dat.cont.format = 'avsx'
dat.files.rsto='pyfehm_unittest_OUT.rsto'
dat.verbose = True
print('test running')
#dat.permlist[0].param['Kx'] = 1.e-5
dat.run(verbose = False)
dat.verbose = True
dat.output_times = [10,20,30]
dat.output_times = np.linspace(1,10,20)
print('test incon reading')
dat.incon.read('pyfehm_unittest_OUT.rsto')
dat0 = fdata('pyfehm_unittest_INPUT.dat','pyfehm_unittest_GRID.inp','pyfehm_unittest_OUT.rsto')
dat.incon.stressgrad(1.,1.,1.)
dat.incon.critical_stress()
print('test work dir change')
dat.work_dir = 'test\\test'
dat.tf = 5.
print('test running again')
dat.run(autorestart = 2,use_paths = True)
os.system('rmdir test /s /q')
dat.run()
os.system('rmdir test /s /q')
dat.work_dir = None
dat.run()
return True
#################### CONSTRUCTORS #########################
print('Testing grid')
geo = fgrid()
if not test_grid(geo):
print('ERROR: grid constructor')
dat = fdata()
dat = fdata(work_dir = 'test/test')
x = np.linspace(0,10,11)
dat.grid.make('pyfehm_unittest_GRID.inp',x=x,y=x,z=x)
dat.grid.lagrit_stor(overwrite=True)
if not os.path.isdir(dat.work_dir): print('where work dir?')
if not os.path.isfile(dat.work_dir+'\\pyfehm_unittest_GRID.inp'): print('where grid in work dir?')
print('Testing input')
os.system('rmdir test /s /q')
if not test_input():
print('ERROR: input files constructor')
os.system('del pyfehm_unittest_INPUT*.*')
os.system('del pyfehm_unittest_GRID*.*')
os.system('del pyfehm_unittest_OUT*.*')
###################
print('No errors!')