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Commit 0c4f99c0 authored by Timothy O'Hanlon's avatar Timothy O'Hanlon
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fixed lpy and reformatted various plots

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locklost/plugins/ham6_power.py
+ 170
− 135
View file @ 0c4f99c0
......@@ -22,118 +22,143 @@ def power_in_ham6(event):
ifo = config.IFO
window = [-3, 3]
if ifo == 'L1':
logger.info('L1 not currently set up for plugin, plugin will not run')
return
elif ifo == 'H1':
if gps < 1414874845:
if ifo == 'H1'and gps < 1414874845:
logger.info('The HAM6 power monitor was not installed for '
'locklosses occurring before November 05, 2024 '
'20:00UTC. Plugin not running.')
return
else:
if event.transition_index[0] < config.GRD_NOMINAL_STATE[0]:
logger.info('IFO was not fully locked, plugin not running')
return
else:
elif ifo == 'L1'and gps < 1410812958:
logger.info('The HAM6 power monitor was not installed for '
'locklosses occurring before Sep 19, 2024 '
'15:29 CT. Plugin not running.')
return
else:
if ifo == 'H1':
channels = [
f'{ifo}:PEM-CS_ADC_5_19_2K_OUT_DQ',
f'{ifo}:ASC-AS_A_DC_NSUM_OUT_DQ',
f'{ifo}:OMC-DCPD_SUM_OUT_DQ',
f'{ifo}:ISI-HAM6_GS13INF_V3_IN1_DQ'
]
# Get the data
segment = Segment(window).shift(gps)
bufs = data.fetch(channels, segment)
# Calibration
calPEM = 0.177 # [W/ct]
calASA = 1.15e-5 # From data before GPS=1415043099 lockloss
asa_sat_thresh = 130000*calASA # ~1.5W; raw cts before calib
pmon_sat_thresh = 32000*calPEM # ~5.66kW; rails at ~32k (1V)
elif ifo == 'L1':
channels = [
f'{ifo}:PEM-CS_ADC_4_11_OUT_DQ',
f'{ifo}:ASC-AS_A_DC_SUM_OUT_DQ',
f'{ifo}:OMC-DCPD_SUM_OUT_DQ',
f'{ifo}:ISI-HAM6_GS13INF_V3_IN1_DQ',
f'{ifo}:PEM-CS_ADC_4_11_GAIN'
]
# Get the data
segment = Segment(window).shift(gps)
bufs = data.fetch(channels, segment)
# Filter through each channel and get data times
# PEM-CS_ADC_5_19_2K_OUT_DQ
pmon = bufs[0].data*calPEM
t_pmon = np.arange(0, len(pmon))/bufs[0].sample_rate + window[0]
# ASC-AS_A_DC_NSUM_OUT_DQ
asa = bufs[1].data
pasa = asa*calASA
t_asa = np.arange(0, len(asa))/bufs[1].sample_rate + window[0]
# OMC-DCPD_SUM_OUT_DQ
dcpd = bufs[2].data
t_dcpd = np.arange(0, len(dcpd))/bufs[2].sample_rate + window[0]
# ISI-HAM6_GS13INF_V3_IN1_DQ
gs13 = bufs[3].data
t_gs13 = np.arange(0, len(gs13))/bufs[3].sample_rate + window[0]
# Find fast shutter trigger time
# Calibration
calPEM = 1 # calibrated in front end [W]
calASA = 1.562e-5 # Calibrated to same power as PEM during lockloss
asa_sat_thresh = (2**17)*calASA # ~1.5W; raw cts before calib
pmon_sat_thresh = (2**15)*bufs[4].data[0]*calPEM # ~5.66kW; rails at ~32k (1V)
# Filter through each channel and get data times
# PEM-CS_ADC_5_19_2K_OUT_DQ
pmon = bufs[0].data*calPEM
t_pmon = np.arange(0, len(pmon))/bufs[0].sample_rate + window[0]
# ASC-AS_A_DC_NSUM_OUT_DQ
asa = bufs[1].data
pasa = asa*calASA
t_asa = np.arange(0, len(asa))/bufs[1].sample_rate + window[0]
# OMC-DCPD_SUM_OUT_DQ
dcpd = bufs[2].data
t_dcpd = np.arange(0, len(dcpd))/bufs[2].sample_rate + window[0]
# ISI-HAM6_GS13INF_V3_IN1_DQ
gs13 = bufs[3].data
t_gs13 = np.arange(0, len(gs13))/bufs[3].sample_rate + window[0]
# Find fast shutter trigger time
if ifo == 'H1':
trigger = (np.abs(gs13) > 100).argmax()
t_trigger = t_gs13[trigger]
# Integrate power monitor over t_trigger+[-0.1, +0.2]
pmon_integ_range = range(
(t_pmon >= t_trigger-0.1).argmax(),
(t_pmon > t_trigger+0.2).argmax()
)
e_ham6 = sum(pmon[pmon_integ_range])*(t_pmon[1]-t_pmon[0])
# Assume that the power while the shutter was closed is negligible
# Only integrate when the shutter is open
# If pmon doesn't saturate, shutter open/close status is approximated by:
# abs(p(ham6)/p(AS_A_DC_NSUM)) < pmon_sat_thresh/asa_sat_thresh = 3.8k
#
# This is because:
# When the shutter is closed, the ratio would be:
# ~1/trans_mirror ~ 1.4E4 > 3.8k
# (or larger if AS_A saturates but power monitor doesn't)
# When the shutter is open, the ratio would be
# ~1 < 3.8k
# (or larger if AS_A saturates but power monitor doesn't)
# pmon saturates earlier than AS_A when shutter is closed, because
# pmon_sat_thresh is 5.7kW and asa_sat_thresh/trans_mirror~20kW
#
# Therefore, unless pmon saturates,
# abs(p(ham6)/p(AS_A_DC_NSUM)) < pmon_sat_thresh/asa_sat_thresh = 3.8k
# is a good criteria to tell the shutter open state
# Get ratio between pmon and pasa - add 1e-20 to avoid /0
elif ifo == 'L1':
trigger = (np.abs(gs13) > 500).argmax()
t_trigger = t_gs13[trigger]
# Integrate power monitor over t_trigger+[-0.1, +0.2]
pmon_integ_range = range(
(t_pmon >= t_trigger-0.1).argmax(),
(t_pmon > t_trigger+0.2).argmax()
)
e_ham6 = sum(pmon[pmon_integ_range])*(t_pmon[1]-t_pmon[0])
# Assume that the power while the shutter was closed is negligible
# Only integrate when the shutter is open
# If pmon doesn't saturate, shutter open/close status is approximated by:
# abs(p(ham6)/p(AS_A_DC_NSUM)) < pmon_sat_thresh/asa_sat_thresh = 3.8k
#
# This is because:
# When the shutter is closed, the ratio would be:
# ~1/trans_mirror ~ 1.4E4 > 3.8k
# (or larger if AS_A saturates but power monitor doesn't)
# When the shutter is open, the ratio would be
# ~1 < 3.8k
# (or larger if AS_A saturates but power monitor doesn't)
# pmon saturates earlier than AS_A when shutter is closed, because
# pmon_sat_thresh is 5.7kW and asa_sat_thresh/trans_mirror~20kW
#
# Therefore, unless pmon saturates,
# abs(p(ham6)/p(AS_A_DC_NSUM)) < pmon_sat_thresh/asa_sat_thresh = 3.8k
# is a good criteria to tell the shutter open state
# Get ratio between pmon and pasa - add 1e-20 to avoid /0
if ifo == 'H1':
pmon_pasa_ratio = np.divide(np.abs(pmon), np.abs(pasa) + 1E-20)
ratio_thresh = pmon_sat_thresh/asa_sat_thresh
# Getting power downstream of fast shutter
p_after_FS = np.multiply(pmon, np.logical_and(pmon_pasa_ratio < ratio_thresh, pmon > 0.01))
# Integrate p_aft_fs over the same integration range for pmon
e_after_FS = sum(p_after_FS[pmon_integ_range])*(t_pmon[1]-t_pmon[0])
# Check if pmon is close to saturation
pmon_sat_check = np.max(pmon) > 0.9*pmon_sat_thresh
# Plot figures
logger.info('Creating HAM6 power plot')
# Update default font sizes
plt.rcParams['font.size'] = 20
plt.rcParams['axes.titlesize'] = 35
plt.rcParams['axes.labelsize'] = 20
plt.rcParams['xtick.labelsize'] = 20
plt.rcParams['ytick.labelsize'] = 20
plt.rcParams['legend.fontsize'] = 23
fig, (ax0, ax1, ax2) = plt.subplots(3, sharex=True, figsize=(27, 16), dpi=100)
# Plot PEM pmon, AS_A, and power after the fast shutter
p_peak = np.nanmax(pmon) # peak power
ax0.semilogy(
t_pmon,
pmon,
label=f'Lockloss power monitor (Energy: {e_ham6:.1f}J, Peak power: {p_peak:.1f}W)',
linewidth=5.5
)
ax0.semilogy(
t_asa,
pasa,
label='ASC-AS_A_DC_NSUM',
linewidth=5.5
)
elif ifo == 'L1':
pmon_pasa_ratio = 1 # ASA already calibrated to PEM channel
ratio_thresh = pmon_sat_thresh/asa_sat_thresh
# Getting power downstream of fast shutter
p_after_FS = np.multiply(pmon, np.logical_and(pmon_pasa_ratio < ratio_thresh, pmon > 0.01))
# Integrate p_aft_fs over the same integration range for pmon
e_after_FS = sum(p_after_FS[pmon_integ_range])*(t_pmon[1]-t_pmon[0])
# Check if pmon is close to saturation
pmon_sat_check = np.max(pmon) > 0.9*pmon_sat_thresh
# Plot figures
logger.info('Creating HAM6 power plot')
# Update default font sizes
plt.rcParams['font.size'] = 20
plt.rcParams['axes.titlesize'] = 35
plt.rcParams['axes.labelsize'] = 20
plt.rcParams['xtick.labelsize'] = 20
plt.rcParams['ytick.labelsize'] = 20
plt.rcParams['legend.fontsize'] = 23
fig, (ax0, ax1, ax2) = plt.subplots(3, sharex=True, figsize=(27, 16), dpi=100)
# Plot PEM pmon, AS_A, and power after the fast shutter
p_peak = np.nanmax(pmon) # peak power
ax0.semilogy(
t_pmon,
pmon,
label=f'Lockloss power monitor (Energy: {e_ham6:.1f}J, Peak power: {p_peak:.1f}W)',
linewidth=5.5
)
ax0.semilogy(
t_asa,
pasa,
label='ASC-AS_A_DC_NSUM',
linewidth=5.5
)
if ifo == 'H1':
ax0.semilogy(
t_pmon,
p_after_FS,
......@@ -141,49 +166,59 @@ def power_in_ham6(event):
linewidth=2.5,
color='cyan'
)
ax0.axhline(
asa_sat_thresh,
label='AS_A Saturation Threshold',
color='k',
linestyle='--'
)
if trigger != 0:
ax0.set_xlim(t_trigger-0.15, t_trigger+0.18)
ax0.set_ylim(1E-4, p_peak*2)
ax0.set_ylabel('Power [W]')
# Display warning if pmon saturated
if pmon_sat_check:
logger.info('Power monitor might have railed!')
ax0.text(
t_trigger+0.1,
10,
'Power monitor might have railed!!',
color='red',
size=22
)
# Plot DCPDs
ax1.plot(
t_dcpd,
dcpd,
label='OMC-DCPD_SUM',
lw=4
ax0.set_ylim(1E-4, p_peak*2)
ax0.set_ylabel('Power [W]')
# Display warning if pmon saturated
if pmon_sat_check:
logger.info('Power monitor might have railed!')
ax0.text(
t_trigger+0.1,
10,
'Power monitor might have railed!!',
color='red',
size=22
)
ax1.set_ylabel('Current [mA]')
ax1.set_ylim(35, 45)
# Plot GS13 for HAM6 that shows time of fast shutter close
ax2.plot(
t_gs13,
gs13,
label='HAM6_GS13INF_V3_IN2',
lw=4
)
ax2.set_ylabel('counts')
ax2.set_xlabel(f'Time [s] since Fast Shutter triggered at {str(gps)}')
for ax in [ax0, ax1, ax2]:
ax.grid(True)
ax.legend(loc='lower left')
ax0.set_title('Power through HAM6')
fig.tight_layout(pad=0.05)
# Save plot to lockloss directory
outfile_plot = 'HAM6_power.png'
outpath_plot = event.path(outfile_plot)
fig.savefig(outpath_plot, bbox_inches='tight')
fig.clf()
# Plot DCPDs
ax1.plot(
t_dcpd,
dcpd,
label='OMC-DCPD_SUM',
lw=4
)
ax1.set_ylabel('Current [mA]')
if ifo == 'H1':
ax1.set_ylim(35, 45)
elif ifo == 'L1':
ax1.set_ylim(15, 55)
# Plot GS13 for HAM6 that shows time of fast shutter close
ax2.plot(
t_gs13,
gs13,
label='HAM6_GS13INF_V3_IN2',
lw=4
)
ax2.set_ylabel('counts')
ax2.set_xlabel(f'Time [s] since Lockloss at {str(gps)}')
for ax in [ax0, ax1, ax2]:
ax.grid(True)
ax.legend(loc='lower left')
ax0.set_title('Power through HAM6')
fig.tight_layout(pad=0.05)
# Save plot to lockloss directory
outfile_plot = 'HAM6_power.png'
outpath_plot = event.path(outfile_plot)
fig.savefig(outpath_plot, bbox_inches='tight')
fig.clf()
locklost/plugins/seismic.py
+ 2
− 2
View file @ 0c4f99c0
......@@ -65,7 +65,7 @@ def check_seismic(event):
params['threshold'],
linestyle='--',
color='indigo',
label='seismic threshold',
label='Seismic BLRMS Threshold',
lw=5,
)
# setting left y-axis paramters
......@@ -73,7 +73,7 @@ def check_seismic(event):
ax.yaxis.label.set_color('indigo')
ax.tick_params(axis='y', colors='indigo')
ax.set_ylabel('Estimated peak velocity, 30-100 mHz band [nm/s]')
ax.set_ylim(0, max(channel_data[channel].data)+1)
# ax.set_ylim(0, max(channel_data[channel].data)+1)
# setting right y-axis parameters
ax2.spines['right'].set_color('seagreen')
......
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