import numpy as np
from gainData import AntennaBalunMeasurement as ABM
from gainData import AntennaDiffMeasurement as ADM
from gainData import GainData as GD
import matplotlib.pyplot as plt
#load measurements
hybrid_coupler_A = ABM()
hybrid_coupler_B = ABM()
cambridge_balun = ABM()
no_balun = ADM()
hybrid_coupler_A.read_files('../Rooftop_Antenna_Measurements_August_10th/',
'_hybrid_A_port_A_antenna_',
'../hybrid_coupler_A_Sierra/A_', '_',
'ANRITSU_CSV', '1', '3', '4', 0.05, 0.25)
hybrid_coupler_B.read_files('../Rooftop_Antenna_Measurements_August_10th/',
'_hybrid_B_port_A_antenna_',
'../hybrid_coupler_B/1', '_', 'ANRITSU_CSV', '1',
'3', '4', 0.05, 0.25)
cambridge_balun.read_files('../Rooftop_Antenna_Measurements_August_10th/',
'_cambridge_balun_N_antenna_0_',
'../Cambridge_Balun_Measurements_N/', '_',
'ANRITSU_CSV', '1', '2', '3', 0.05, 0.25)
no_balun.read_files('../Rooftop_Antenna_Measurements_August_10th/',
'_no_balun_antenna_', 'ANRITSU_CSV', 0.05, 0.25)
simulation = GD()
simulation.read_files(
'../Rooftop_Antenna_Measurements_August_10th/Simulation/simulation_s11_rooftop',
'1','3','4',0.05,0.25)
measurements.append(hc)
elif 'B' in balun:
hc=ABM()
hc.read_files(prefix,postfix,
'../hybrid_coupler_B/1','','ANRITSU_CSV',
'1','3','4',0.05,0.25)
measurements.append(hc)
elif 'C' in balun:
hc=ABM()
hc.read_files(data,'_cambridge_balun_N_antenna_0','',
'../Cambridge_Balun_Measurements_N/','','ANRITSU_CSV',
'1','2','3',0.05,0.25)
measurements.append(hc)
elif 'N' in balun:
nb=ADM()
nb.read_files(data,'ANRITSU_CSV',0.05,0.25)
measurements.append(nb)
else:
print('No valid balun option provided. Exiting...')
exit()
if simfile:
simulation=GD()
simulation.read_files(simfile,'CST_S11',fMin=0.05,fMax=0.25)
simulations.append(simulation)
db_s11 = 10. * np.log10(np.abs(balunmeas.antenna_gain_frequency))
db_s11_ucorr = 10. * np.log10(
np.abs(balunmeas.antenna_raw.gainFrequency))
pha_s11 = np.angle(balunmeas.antenna_gain_frequency)
pha_s11_ucorr = np.angle(balunmeas.antenna_raw.gainFrequency)
x = balunmeas.fAxis
elif domain == 'delay':
db_s11 = 10. * np.log10(np.abs(balunmeas.antenna_gain_delay))
db_s11_ucorr = 10. * np.log10(
np.abs(balunmeas.antenna_raw.gainDelay))
pha_s11 = np.angle(balunmeas.antenna_gain_delay)
pha_s11_ucorr = np.angle(balunmeas.antenna_raw.gainDelay)
x = balunmeas.tAxis
elif meastype == 'differential':
no_balun = ADM()
no_balun.read_files(prefix, postfix, filetype, fmin, fmax)
if domain == 'freq':
db_s11 = 10. * np.log10(np.abs(no_balun.antenna_gain_frequency))
pha_s11 = np.angle(no_balun.antenna_gain_frequency)
x = no_balun.fAxis
elif domain == 'delay':
db_s11 = 10. * np.log10(np.abs(no_balun.antenna_gain_delay))
pha_s11 = np.angle(no_balun.antenna_gain_delay)
ax1.plot(x, db_s11, linestyle=ls, color=color, lw=int(lw), label=label)
ax2.plot(x, pha_s11, linestyle=ls, color=color, lw=int(lw), label=label)
ax1.grid()
fig1.set_size_inches(10, 6)
if domain == 'freq':
ax1.set_xlabel('frequency (GHz)')
db_s11 = 10. * np.log10(np.abs(balunmeas.antenna_gain_frequency))
db_s11_ucorr = 10. * np.log10(
np.abs(balunmeas.antenna_raw.gainFrequency))
pha_s11 = np.angle(balunmeas.antenna_gain_frequency)
pha_s11_ucorr = np.angle(balunmeas.antenna_raw.gainFrequency)
x = balunmeas.fAxis
elif domain == 'delay':
db_s11 = 10. * np.log10(np.abs(balunmeas.antenna_gain_delay))
db_s11_ucorr = 10. * np.log10(
np.abs(balunmeas.antenna_raw.gainDelay))
pha_s11 = np.angle(balunmeas.antenna_gain_delay)
pha_s11_ucorr = np.angle(balunmeas.antenna_raw.gainDelay)
x = balunmeas.tAxis
elif meastype == 'differential':
no_balun = ADM()
no_balun.read_files(prefix,
postfix,
filetype,
fmin,
fmax,
changeZ=changez,
z0=zi,
z1=zf)
if domain == 'freq':
db_s11 = 10. * np.log10(np.abs(no_balun.antenna_gain_frequency))
pha_s11 = np.angle(no_balun.antenna_gain_frequency)
x = no_balun.fAxis
elif domain == 'delay':
db_s11 = 10. * np.log10(np.abs(no_balun.antenna_gain_delay))
pha_s11 = np.angle(no_balun.antenna_gain_delay)
import numpy as np
from gainData import AntennaBalunMeasurement as ABM
from gainData import AntennaDiffMeasurement as ADM
from gainData import GainData as GD
import matplotlib.pyplot as plt
#load measurements
hybrid_coupler_A=ABM()
hybrid_coupler_B=ABM()
cambridge_balun=ABM()
no_balun=ADM()
hybrid_coupler_A.read_files('../August29thFeedOnlySinuous/','_a_',
'../hybrid_coupler_A_Sierra/A_','_','ANRITSU_CSV',
'1','3','4',0.05,0.25)
hybrid_coupler_B.read_files('../August29thFeedOnlySinuous/','_b_',
'../hybrid_coupler_B/1','_','ANRITSU_CSV',
'1','3','4',0.05,0.25)
#cambridge_balun.read_files('../GreenBankMeasurements_FeedOnly_August_28th_2017/','_30-175-0.8-230-0.99-50-C-',
# '../Cambridge_Balun_Measurements_N/','_','ANRITSU_CSV',
# '1','2','3',0.05,0.25)
no_balun.read_files('../August29thFeedOnlySinuous/','_no_','ANRITSU_CSV',0.05,0.25)
simulation=GD()
simulation.read_files('../Rooftop_Antenna_Measurements_August_10th/Simulation/simulation_s11_rooftop','CST_S11',fMin=0.05,fMax=0.25)
simulation.gainFrequency=simulation.gainFrequency
#load Jianshu's data
'''
impedance_sim_amp=np.loadtxt(('../Rooftop_Antenna_Measurements_August_10th/'