def read_write(self, obj):
'''
function to test write/read equivalence for an obj which has
__eq__ defined
'''
rf.write(self.pickle_file, obj)
self.assertEqual(rf.read(self.pickle_file), obj)
def read_write(self,obj):
'''
function to test write/read equivalence for an obj which has
__eq__ defined
'''
rf.write(self.pickle_file,obj)
self.assertEqual(rf.read(self.pickle_file), obj)
def test_readwrite_networkSet(self):
'''
test_readwrite_networkSet
TODO: need __eq__ method for NetworkSet
This doesnt test equality between read/write, because there is no
__eq__ test for NetworkSet. it only tests for other errors
'''
rf.write(self.pickle_file, rf.NS([self.ntwk1, self.ntwk2]))
rf.read(self.pickle_file)
def test_readwrite_networkSet(self):
'''
test_readwrite_networkSet
TODO: need __eq__ method for NetworkSet
This doesnt test equality between read/write, because there is no
__eq__ test for NetworkSet. it only tests for other errors
'''
rf.write(self.pickle_file,rf.NS([self.ntwk1, self.ntwk2]))
rf.read(self.pickle_file)
def test_readwrite_calibration(self):
ideals, measured = [], []
std_list = [self.short, self.match, self.open]
for ntwk in std_list:
ideals.append(ntwk)
measured.append(self.embeding_network**ntwk)
cal = rf.Calibration(\
ideals = ideals,\
measured = measured,\
type = 'one port',\
is_reciprocal = True,\
)
original = cal
rf.write(self.pickle_file, original)
unpickled = rf.read(self.pickle_file)
# TODO: this test should be more extensive
self.assertEqual(original.ideals, unpickled.ideals)
self.assertEqual(original.measured, unpickled.measured)
os.remove(self.pickle_file)
def test_readwrite_calibration(self):
ideals, measured = [], []
std_list = [self.short, self.match,self.open]
for ntwk in std_list:
ideals.append(ntwk)
measured.append(self.embeding_network ** ntwk)
cal = rf.Calibration(\
ideals = ideals,\
measured = measured,\
type = 'one port',\
is_reciprocal = True,\
)
original = cal
rf.write(self.pickle_file, original)
unpickled = rf.read(self.pickle_file)
# TODO: this test should be more extensive
self.assertEqual(original.ideals, unpickled.ideals)
self.assertEqual(original.measured, unpickled.measured)
os.remove(self.pickle_file)
vna.create_meas(meas_S12,'S12', channel = meas_channel)
vna.set_frequency_sweep(f_start,
f_stop,
f_npoints,
f_unit = 'Hz',
channel = meas_channel,
)
#%% SHORT S11 measurement
vna.sweep
measurement = vna.get_measurement(mname = meas_S11)
print(f'{meas_S11} measured')
filename = meas_folder / ('SHORT_' + meas_S11 + '.ntwk')
rf.write(str(filename), measurement)
measurement.frequency.units = 'ghz'
measurement.plot_s_mag(ax = ax1, label ='Short S11')
#%%OPEN S11 measurement
vna.sweep
measurement = vna.get_measurement(mname = meas_S11)
print(f'{meas_S11} measured')
filename = meas_folder / ('OPEN_' + meas_S11 + '.ntwk')
rf.write(str(filename), measurement)
measurement.frequency.units = 'ghz'
measurement.plot_s_mag(ax = ax1, label ='Open S11')
f_stop,
f_npoints,
f_unit = 'Hz',
channel = meas_channel,
)
# %matplotlib qt5
#%%THRU measurement
fig, (ax1, ax2) = plt.subplots(2,1)
vna.sweep
#THRU S11
measurement = vna.get_measurement(mname = meas_S11)
print(f'{meas_S11} measured')
filename = meas_folder / ('THRU_' + meas_S11 + '.ntwk')
rf.write(str(filename), measurement)
measurement.frequency.units = 'ghz'
measurement.plot_s_db(ax = ax1, label ='THRU S11')
#THRU S22
measurement = vna.get_measurement(mname = meas_S22)
print(f'{meas_S22} measured')
filename = meas_folder / ('THRU_' + meas_S22 + '.ntwk')
rf.write(str(filename), measurement)
measurement.frequency.units = 'ghz'
measurement.plot_s_db(ax = ax2, label ='THRU S22')
#THRU S21
measurement = vna.get_measurement(mname = meas_S21)
print(f'{meas_S21} measured')
filename = meas_folder / ('THRU_' + meas_S21 + '.ntwk')
