def vary_omega1_size(problem):
"""Vary size of \Omega1. Saves also the regions into options['output_dir'].
Input:
problem: ProblemDefinition instance
Return:
a generator object:
1. creates new (modified) problem
2. yields the new (modified) problem and output container
3. use the output container for some logging
4. yields None (to signal next iteration to Application)
"""
from sfepy.fem import ProblemDefinition
from sfepy.solvers.ts import get_print_info
output.prefix = 'vary_omega1_size:'
diameters = nm.linspace(0.1, 0.6, 7) + 0.001
ofn_trunk, output_format = problem.ofn_trunk, problem.output_format
output_dir = problem.output_dir
join = os.path.join
conf = problem.conf
cf = conf.get_raw('functions')
n_digit, aux, d_format = get_print_info(len(diameters) + 1)
for ii, diameter in enumerate(diameters):
output('iteration %d: diameter %3.2f' % (ii, diameter))
cf['select_circ'] = (lambda coors, domain=None: select_circ(
coors[:, 0], coors[:, 1], 0, diameter),
)
conf.edit('functions', cf)
problem = ProblemDefinition.from_conf(conf)
problem.save_regions(join(output_dir, ('regions_' + d_format) % ii),
['Omega_1'])
region = problem.domain.regions['Omega_1']
if not region.has_cells_if_can():
print region
raise ValueError('region %s has no cells!' % region.name)
ofn_trunk = ofn_trunk + '_' + (d_format % ii)
problem.setup_output(output_filename_trunk=ofn_trunk,
output_dir=output_dir,
output_format=output_format)
out = []
yield problem, out
out_problem, state = out[-1]
filename = join(output_dir, ('log_%s.txt' % d_format) % ii)
fd = open(filename, 'w')
log_item = '$r(\Omega_1)$: %f\n' % diameter
fd.write(log_item)
fd.write('solution:\n')
nm.savetxt(fd, state())
fd.close()
yield None
def vary_omega1_size( problem ):
"""Vary size of \Omega1. Saves also the regions into options['output_dir'].
Input:
problem: ProblemDefinition instance
Return:
a generator object:
1. creates new (modified) problem
2. yields the new (modified) problem and output container
3. use the output container for some logging
4. yields None (to signal next iteration to Application)
"""
from sfepy.fem import ProblemDefinition
from sfepy.solvers.ts import get_print_info
output.prefix = 'vary_omega1_size:'
diameters = nm.linspace( 0.1, 0.6, 7 ) + 0.001
ofn_trunk, output_format = problem.ofn_trunk, problem.output_format
output_dir = problem.output_dir
join = os.path.join
conf = problem.conf
cf = conf.get_raw( 'functions' )
n_digit, aux, d_format = get_print_info( len( diameters ) + 1 )
for ii, diameter in enumerate( diameters ):
output( 'iteration %d: diameter %3.2f' % (ii, diameter) )
cf['select_circ'] = (lambda coors, domain=None:
select_circ(coors[:,0], coors[:,1], 0, diameter),)
conf.edit('functions', cf)
problem = ProblemDefinition.from_conf( conf )
problem.save_regions( join( output_dir, ('regions_' + d_format) % ii ),
['Omega_1'] )
region = problem.domain.regions['Omega_1']
if not region.has_cells_if_can():
print region
raise ValueError( 'region %s has no cells!' % region.name )
ofn_trunk = ofn_trunk + '_' + (d_format % ii)
problem.setup_output(output_filename_trunk=ofn_trunk,
output_dir=output_dir,
output_format=output_format)
out = []
yield problem, out
out_problem, state = out[-1]
filename = join( output_dir,
('log_%s.txt' % d_format) % ii )
fd = open( filename, 'w' )
log_item = '$r(\Omega_1)$: %f\n' % diameter
fd.write( log_item )
fd.write( 'solution:\n' )
nm.savetxt(fd, state())
fd.close()
yield None
def vary_teps(problem):
"""Vary eigenmomentum threshold."""
from sfepy.solvers.ts import get_print_info
output.prefix = "vary_teps:"
if tepss_g is None:
tepss = nm.logspace(-3, -1, 11)
else:
tepss = tepss_g
ofn_trunk, output_dir = problem.ofn_trunk, problem.output_dir
join = os.path.join
n_digit, aux, d_format = get_print_info(len(tepss) + 1)
for ii, teps in enumerate(tepss):
output("iteration %d: teps %.2e" % (ii, teps))
opts = problem.conf.options
opts.teps = teps
opts.plot_options["show"] = False
opts.fig_name = join(output_dir, (("band_gaps_%s" % d_format) + "_teps_%3.2e" + fig_suffix) % (ii, teps))
problem.ofn_trunk = ofn_trunk + "_" + (d_format % ii)
out = []
yield problem, out
evp, bg = out[-1]
filename = join(output_dir, ("band_gaps_%s.txt" % d_format) % ii)
log_item = "$10^q$: %f\n" % teps
save_log(filename, bg, log_item)
yield None
def get_animation_info(self, filename, add_output_dir=True, rng=None):
if rng is None:
rng = self.file_source.get_step_range()
base, ext = os.path.splitext(filename)
if add_output_dir:
base = os.path.join(self.output_dir, base)
n_digit, fmt, suffix = get_print_info(rng[1] - rng[0] + 1)
return base, suffix, ext
def __init__(self, t0, t1, dt=None, n_step=None, step=None, **kwargs):
Struct.__init__(self,
t0=t0,
t1=t1,
dt=dt,
n_step=n_step,
step=step)
self.n_digit, self.format, self.suffix = get_print_info(
self.n_step)
def get_animation_info(self, filename, add_output_dir=True, rng=None):
if rng is None:
rng = self.file_source.get_step_range()
base, ext = os.path.splitext(filename)
if add_output_dir:
base = os.path.join(self.output_dir, base)
n_digit, fmt, suffix = get_print_info(rng[1] - rng[0] + 1)
return base, suffix, ext
def get_animation_info(self, filename, add_output_dir=True, last_step=None):
if last_step is None:
steps, _ = self.file_source.get_ts_info()
last_step = steps[-1]
base, ext = os.path.splitext(filename)
if add_output_dir:
base = os.path.join(self.output_dir, base)
_, _, suffix1 = get_print_info(last_step)
return base, suffix1 + '_%.5e', ext
def get_animation_info(self, filename, add_output_dir=True, last_step=None):
if last_step is None:
steps, _ = self.file_source.get_ts_info()
last_step = steps[-1]
base, ext = os.path.splitext(filename)
if add_output_dir:
base = os.path.join(self.output_dir, base)
_, _, suffix1 = get_print_info(last_step + 1)
return base, suffix1 + '_%.5e', ext
def vary_y3_size( problem ):
"""Vary size of Y3 inclusion."""
from sfepy.fem import ProblemDefinition
from sfepy.solvers.ts import get_print_info
default_printer.prefix = 'vary_y3_size:'
y3_diameters = [0.2, 0.25, 0.3, 0.35, 0.4]
if diameters_g is None:
y3_diameters = nm.linspace( 0.15, 0.45, 16 )
else:
y3_diameters = diameters_g
# y3_diameters = [0.45]
ofn_trunk, output_dir = problem.ofn_trunk, problem.output_dir
join = os.path.join
conf = problem.conf
cr = conf.get_raw( 'regions' )
n_digit, aux, d_format = get_print_info( len( y3_diameters ) + 1 )
for ii, diameter in enumerate( y3_diameters ):
output( 'iteration %d: diameter %3.2f' % (ii, diameter) )
opts = problem.conf.options
cr['Y3'] = ('nodes by select_y3_circ( x, y, z, %.5f )' % diameter, {})
conf.edit( 'regions', cr )
problem = ProblemDefinition.from_conf( conf )
problem.save_regions( join( output_dir, ('regions_' + d_format) % ii ),
['Y2', 'Y3'] )
for region in problem.domain.regions:
if not region.has_cells_if_can():
raise ValueError( 'region %s has no cells!' % region.name )
opts.plot_options['show'] = False
opts.fig_name = join( output_dir,
(('band_gaps_%s' % d_format)
+ '_y3_%03.2f' + fig_suffix) % (ii, diameter) )
problem.ofn_trunk = ofn_trunk + '_' + (d_format % ii)
out = []
yield problem, out
evp, bg = out[-1]
filename = join( output_dir,
('band_gaps_%s.txt' % d_format) % ii )
log_item = '$r(Y_3)$: %f\n' % diameter
save_log( filename, bg, log_item )
yield None
def vary_y3_size(problem):
"""Vary size of Y3 inclusion."""
from sfepy.fem import ProblemDefinition
from sfepy.solvers.ts import get_print_info
output.prefix = "vary_y3_size:"
y3_diameters = [0.2, 0.25, 0.3, 0.35, 0.4]
if diameters_g is None:
y3_diameters = nm.linspace(0.15, 0.45, 16)
else:
y3_diameters = diameters_g
# y3_diameters = [0.45]
ofn_trunk, output_dir = problem.ofn_trunk, problem.output_dir
join = os.path.join
conf = problem.conf
cr = conf.get_raw("regions")
n_digit, aux, d_format = get_print_info(len(y3_diameters) + 1)
for ii, diameter in enumerate(y3_diameters):
output("iteration %d: diameter %3.2f" % (ii, diameter))
opts = problem.conf.options
cr["Y3"] = ("nodes by select_y3_circ( x, y, z, %.5f )" % diameter, {})
conf.edit("regions", cr)
problem = ProblemDefinition.from_conf(conf)
problem.save_regions(join(output_dir, ("regions_" + d_format) % ii), ["Y2", "Y3"])
for region in problem.domain.regions:
if not region.has_cells_if_can():
raise ValueError("region %s has no cells!" % region.name)
opts.plot_options["show"] = False
opts.fig_name = join(output_dir, (("band_gaps_%s" % d_format) + "_y3_%03.2f" + fig_suffix) % (ii, diameter))
problem.ofn_trunk = ofn_trunk + "_" + (d_format % ii)
out = []
yield problem, out
evp, bg = out[-1]
filename = join(output_dir, ("band_gaps_%s.txt" % d_format) % ii)
log_item = "$r(Y_3)$: %f\n" % diameter
save_log(filename, bg, log_item)
yield None
