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117 | #!/usr/bin/python2
# -*- coding: utf-8 -*-
import matplotlib
matplotlib.rcParams['backend'] = 'Agg'
matplotlib.rc('font', size='10')
matplotlib.rc('text', usetex=True) # FIXME !! nicer but slower !!!
from matplotlib.pyplot import *
from numpy import *
from pygolem_lite.config import *
from pygolem_lite.modules import *
from pygolem_lite import Shot
resonant_Bt = 0.0875
R = MajorRadius
a = MinorRadius
def where_first_or_nan(time, values, harmonic=1):
possible = time[values >= resonant_Bt*harmonic]
if len(possible) == 0:
return nan
else:
return possible[0]
def make_plots():
shot = Shot()
preionization = shot["preionization"]
# if preionization not in [4, 5, 6, 7]:
# saveconst("MWactive", 0)
# return
# else:
# saveconst("MWactive", 1)
t, mw_power = shot["nistandard", "mw_energy"]
t, Iplasma = shot["plasma_current"]
t, Uloop = shot["loop_voltage"]
t, Bt = shot["toroidal_field"]
t, haphoto = shot["haphoto"]
t *= 1e3
Bt_LFS = R / (R + a) * Bt
Bt_HFS = R / (R - a) * Bt
loc = where(mw_power > mw_power.mean())[0]
loc = where(mw_power > mw_power.mean())[0]
mw_start = t[loc[0]]
os.system(''.join(('echo ',str(mw_start),'>mw_start')))
mw_end = t[loc[-1]]
os.system(''.join(('echo ',str(mw_end),'>mw_end')))
t_resonnant_Bt_HFS = where_first_or_nan(t, Bt_HFS)
os.system(''.join(('echo ',str(t_resonnant_Bt_HFS),'>t_resonnant_Bt_HFS')))
t_resonnant_Bt = where_first_or_nan(t, Bt)
os.system(''.join(('echo ',str(t_resonnant_Bt),'>t_resonnant_Bt')))
t_resonnant_Bt_LFS = where_first_or_nan(t, Bt_LFS)
os.system(''.join(('echo ',str(t_resonnant_Bt_LFS),'>t_resonnant_Bt_LFS')))
t_resonnant_2_Bt_HFS = where_first_or_nan(t, Bt_HFS, 2)
t_resonnant_2_Bt = where_first_or_nan(t, Bt, 2)
t_resonnant_2_Bt_LFS = where_first_or_nan(t, Bt_LFS, 2)
def mark_regions():
axvline(mw_start, c="g", ls="--")
axvline(mw_end, c="g", ls="--")
axvline(t_resonnant_Bt, c="r", ls="--")
axvline(t_resonnant_Bt_LFS, c="r", ls="--")
axvline(t_resonnant_Bt_HFS, c="r", ls="--")
axvline(t_resonnant_2_Bt, c="r", ls=":")
axvline(t_resonnant_2_Bt_LFS, c="r", ls=":")
axvline(t_resonnant_2_Bt_HFS, c="r", ls=":")
figure(0)
axes1 = subplot(511)
axes1.plot(t, Bt_HFS, "m-", label=r"$B_t$ HFS")
axes1.plot(t, Bt, "b-", label=r"$B_t$ center")
axes1.plot(t, Bt_LFS, "c-", label=r"$B_t$ LFS")
ylabel(r"$B_t$ [T]")
ylim(0, Bt_HFS.max()*1.1)
axes1.axhline(resonant_Bt, c="k", label=("%.4f T" % resonant_Bt))
axes1.axhline(resonant_Bt * 2, linestyle='--', c="k", label=("%.4f T" % (resonant_Bt * 2)))
mark_regions()
l = legend(loc=1, fancybox=True, prop={"size": 10})
#l.get_frame().set_alpha(0.75)
axes2 = subplot(512, sharex=axes1)
axes2.plot(t, Uloop)
ylabel(r"$U_{loop}$ [V]")
u_max = shot["loop_voltage_max"]
ylim(0, u_max+ 0.5)
mark_regions()
axes3 = subplot(513, sharex=axes1)
axes3.plot(t, Iplasma)
ylabel(r"$I_{plasma}$ [A]")
ylim(ymin=0)
mark_regions()
axes4 = subplot(514, sharex=axes1)
axes4.plot(t, mw_power)
ylabel(r"$P_{MW}$ [a.u.]")
mark_regions()
axes5 = subplot(515, sharex=axes1)
axes5.plot(t, haphoto)
ylabel(r"$H_{\alpha}$ intensity [a.u.]")
xlabel(r"$t$ [ms]")
mark_regions()
savefig("okenko.png")
if __name__ == "__main__":
make_plots()
saveconst('status', 0)
|
