def optimize_scalez():
print "optimize scalez"
Load_sim_number = 1
wg = waveguide()
frequency_vector = []
nValues = 11
values = np.linspace(0.0000,.0005,nValues)
scale_x = 0.0005
wg.set_scalex(scale_x)
for i in range(nValues):
wg = waveguide()
z = values[i]
wg.set_scalez(z)
wg.compute_LCVI()
#wg.load(Load_sim_number)
wg.plot()
wg.save(Load_sim_number)
#
#wg.plot()
modes = wg.eigenmodes[0][0:2]
sim_wg = simulated_wg(Load_sim_number)
#sim_wg.test_interpolate()
sim_wg.build_L_mat(verbose = True)
sim_wg.build_C_mat(verbose = True)
freq_tmp = sim_wg.get_frequencies()
if (freq_tmp[0] > 3*(10**9)):
freq = freq_tmp[0:2]/10**9
print freq_tmp[0]
print "0:2"
else:
freq = freq_tmp[1:3]/10**9
print"1:3"
#print freq_tmp
print "scalex", scale_x
print "scalez (opt)", z
print "Eigenmode Frequencies:", freq
print "HFSS Frequencies:", modes
diff = (freq-modes)/freq
print "Difference:", diff
frequency_vector.append(diff)
hfss.release()
print "optimize scalez"
print values
print frequency_vector
np.save("../data/frequencyvector", frequency_vector)
plt.plot(values, frequency_vector)
plt.show()
def One_Trial():
print "One Trial"
Load_sim_number = 1
wg = waveguide()
frequency_vector = []
scale_x = 0.0005
wg.set_scalex(scale_x)
z = 0.00004
wg.set_scalez(z)
wg = waveguide(angle_n = 100)
wg.compute_LCVI(cap_surf = "CrossSecIntSurf", ind_surf = "CrossSecIntSurf1")
#wg.load(Load_sim_number)
#wg.plot()
wg.save(Load_sim_number)
#
#wg.plot()
modes = wg.eigenmodes[0][0:2]
sim_wg = simulated_wg(Load_sim_number)
#sim_wg.test_interpolate()
#GET LC VALUES and BUILD MATRIX
sim_wg.build_L_mat(verbose = True)
sim_wg.build_C_mat(verbose = True)
freq_tmp = sim_wg.get_frequencies()
hfss.release()
#Get best values
if (freq_tmp[0] > 3*(10**9)):
freq = freq_tmp[0:2]/10**9
print freq_tmp[0]
print "0:2"
else:
freq = freq_tmp[1:3]/10**9
print"1:3"
#Display Results
print freq_tmp # print all HFSS Frequencies
print "scalex", scale_x
print "scalez (opt)", z
print "Eigenmode Frequencies:", freq
print "HFSS Frequencies:", modes
diff = (freq-modes)/freq
print "Difference:", diff
frequency_vector.append(diff)
np.save("../data/frequencyvector", freq_tmp)
def main():
Load_sim_number = 1
wg = waveguide(angle_n = 20)
wg.compute_LCVI()
wg.save(Load_sim_number)
wg.load(Load_sim_number)
wg.plot()
modes = wg.eigenmodes[0][0:2]
sim_wg = simulated_wg(Load_sim_number)
sim_wg.test_interpolate()
sim_wg.build_L_mat(verbose=True)
sim_wg.build_C_mat(verbose=True)
freq = sim_wg.get_frequencies()[1:3]/10**9
print "Simulated Frequencies:", freq
print "HFSS Frequencies:", modes
diff = (freq-modes)/freq
print "Difference:", diff
hfss.release()
