def plot_power_balance_rlc_with_split():
# Define the simulation parameters
config = {
'fs': 48e3, # Sample rate
'grad': 'discret', # in {'discret', 'theta', 'trapez'}
'theta': 0.5, # theta-scheme for the structure
'split': False, # apply core.split_linear() beforehand
'maxit': 10, # Max iteration for NL solvers
'path': path, # Path to the results folder
'pbar': False, # Display a progress bar
'timer': True, # Display minimal timing infos
'lang': 'python', # in {'python', 'c++'}
}
# retrieve the pyphs.Core of a linear RLC from the examples
from pyphs.examples.rlc.rlc import core as rlc
rlc_ = rlc.__copy__()
rlc_.reduce_z()
simu = Simulation(rlc_.to_method(), config=config)
dur = 0.01
u = signalgenerator(which='sin', f0=800., tsig=dur, fs=simu.config['fs'])
sequ = u[:, np.newaxis]
simu.init(u=sequ)
simu.process()
simu.data.plot_powerbal(mode='single', show=False)
simu.data.plot_powerbal(mode='multi', show=False)
if not os.name.lower().startswith('nt'):
shutil.rmtree(path)
return True
def simulation_rlc_without_split():
rlc = core.__copy__()
# Define the simulation parameters
config = {'fs': 48e3, # Sample rate
'grad': 'discret', # in {'discret', 'theta', 'trapez'}
'theta': 0.5, # theta-scheme for the structure
'split': False, # apply core.split_linear() beforehand
'maxit': 10, # Max iteration for NL solvers
'eps': 1e-16, # Global numerical tolerance
'path': path, # Path to the results folder
'pbar': False, # Display a progress bar
'timer': True, # Display minimal timing infos
'lang': 'python', # in {'python', 'c++'}
}
simu = Simulation(rlc.to_method(), config=config)
dur = 0.01
u = signalgenerator(which='sin', f0=800., tsig=dur, fs=simu.config['fs'])
def sequ():
for el in u():
yield (el, )
simu.init(u=sequ(), nt=int(dur*simu.config['fs']))
simu.process()
if not os.name.lower().startswith('nt'):
shutil.rmtree(path)
return True
def plot_power_balance_rlc_with_split():
# Define the simulation parameters
config = {
'fs': 48e3, # Sample rate
'gradient': 'discret', # in {'discret', 'theta', 'trapez'}
'theta': 0.5, # theta-scheme for the structure
'split': True, # apply core.split_linear() beforehand
'maxit': 10, # Max iteration for NL solvers
'numtol': 1e-16, # Global numerical tolerance
'path': None, # Path to the results folder
'progressbar': True, # Display a progress bar
'timer': True, # Display minimal timing infos
'language': 'python', # in {'python', 'c++'}
'cpp_build_and_run_script': None, # compile and exec binary
'eigen_path': None, # path to Eigen library
}
# retrieve the pyphs.PHSCore of a linear RLC from the examples
from pyphs.examples.rlc.rlc import core as rlc
rlc_ = rlc.__copy__()
rlc_.build_R()
simu = PHSSimulation(rlc_, config=config)
dur = 0.01
u = signalgenerator(which='sin', f0=800., tsig=dur, fs=simu.fs)
def sequ():
for el in u():
yield (el, )
simu.init(sequ=sequ(), nt=int(dur * simu.fs))
simu.process()
simu.data.plot_powerbal(mode='single', show=False)
simu.data.plot_powerbal(mode='multi', show=False)
return True
def plot_power_balance_rlc_with_split():
# Define the simulation parameters
config = {'fs': 48e3, # Sample rate
'grad': 'discret', # in {'discret', 'theta', 'trapez'}
'theta': 0.5, # theta-scheme for the structure
'split': False, # apply core.split_linear() beforehand
'maxit': 10, # Max iteration for NL solvers
'eps': 1e-16, # Global numerical tolerance
'path': path, # Path to the results folder
'pbar': False, # Display a progress bar
'timer': True, # Display minimal timing infos
'lang': 'python', # in {'python', 'c++'}
}
# retrieve the pyphs.Core of a linear RLC from the examples
from pyphs.examples.rlc.rlc import core as rlc
rlc_ = rlc.__copy__()
rlc_.reduce_z()
simu = Simulation(rlc_.to_method(), config=config)
dur = 0.01
u = signalgenerator(which='sin', f0=800., tsig=dur, fs=simu.config['fs'])
def sequ():
for el in u():
yield (el, )
simu.init(u=sequ(), nt=int(dur*simu.config['fs']))
simu.process()
simu.data.plot_powerbal(mode='single', show=False)
simu.data.plot_powerbal(mode='multi', show=False)
if not os.name.lower().startswith('nt'):
shutil.rmtree(path)
return True