1/2 open LLCV bypass valve, and the exhaust bypass valve fully open.
Flow was noted after 95 seconds, closed LLCV valve, and 3 minutes later the exhaust bypass valve was closed.
Next over-fill on Thursday, March 9th before 23:59 utc.
It turned out that all my previous analysis did not correct for the time-varying optical gain when calibrating the cross spectra into displacement even though I thought I have done it. I have recalibrated all the O1 data with the optical gain properly corrected.
Fortunately, the conclusions I have arrived so far qualitatively did not change.
Here are some plots with the newly calibrated cross spectra, mainly to show there is no drastic changes.
Fig.1 Band limited rms of the cross spectra in time series for the entireO1 run. The old data (without the optical gain correction) are show as "+" symbols while the recalibrated data are shown as dots.
Fig.2 Ratio of the band limited rms, (new data) / (old data). Notice that the high frequency bands (bands 3-8) tend to have larger displacement now. The low frequencies do not fluctuate as big as those for high frequencies as expected.
Fig.3 A naive correlation diagram in which the linear dependency between high frequency bands (bands 5-8) is still visible.
Fig.4 Time series plot of scaled band 8 BLRMS, LVEA temperature and scaled vertical sensors of various suspended optics.
A report on correlation with the optical gain.
It seems that the overall behavior of the optical gain shows correlation with the band limited rms. Is this calibration artefacts or something real ??
Darkhan provided me with kappa_c which was averaged over every 128 sec. In order for us to become less sensitive to glitches or some discontinuity in the Pcal line, we used kappa_c from the C02 frame that are smoothed by a median filter. In the second figure, I overlaid the old rms data which I did not correct for kappa_c by accident (as described in the above entry). Both corrected and uncorrected rms show somewhat good correlation with the rms.
The same analysis for the DARM cavity pole. Maybe correlated as well ?
The attached is the DARM model that I have used for calibrating the cross spectra. OLGTF = sensing * (atst + apum ) * userd.
Laser Status: SysStat is good Front End power is 32.01W (should be around 30 W) Frontend Watch is GREEN HPO Watch is RED PMC: It has been locked 12.0 days, 22.0 hr 9.0 minutes (should be days/weeks) Reflected power is 3.078Watts and PowerSum = 25.24Watts. FSS: It has been locked for 0.0 days 0.0 h and 15.0 min (should be days/weeks) TPD[V] = 1.466V (min 0.9V) ISS: The diffracted power is around 8.465% (should be 5-9%) Last saturation event was 0.0 days 0.0 hours and 15.0 minutes ago (should be days/weeks) For further in-depth analysis of the trends, please refer to Jason O., Pete K. or Rick S.
FAMIS#4140 closed
I have power-cycled camera 18 and restarted it's server. It appears to be working again. My first try at just restarting the server didn't work, only after power cycling the camera did it appear to be working.
After the removal of polarization sensors for ITMX HWS an adjusting HWS STEER M10 to center onto ITMX HWS, as reported in alog25718 , we performed CO2 and RH tests on the ITMX HWS. The results show that the ITMX HWS beam is aligned and working as expected.
CO2 Test:
We performed the CO2 test on March 1, turning up the CO2 laser deliver power to 4W between 1140906458 and 1140908050. The spherical power behaves as expected (see image CO2_ITMX_1Mar_SP.png )
- The spherical power increases up until tthe CO2 is turned off with the maximum change in spherical power of about 60 microdiopters
-After CO2 laser is turned off, the spherical power can be seen to decrease slowly before the ITMX HWS is stopped streaming
The gradient plot also shows this change in spherical power:
-All arrows are pointing inward towards the location where the CO2 beam is positioned on the test mass (see image CO2_ITMX_Gradient_1Mar.png) , which has an offset towards the +ve y-direction and -ve x-direction from the centre of the HWS beam.
Since the CO2 laser beam alignment is optimized for interferometer beam, an offset is acceptable.
RH Test:
We performed the RH test on March 6 to check for the alignment of the ITMX HWS beam on the test mass. The HWS ran between 1141342135 and 1141351367. Both upper and lower RH's on ITMX is turned on to 1W for two hours between 1141342544 and and 1141349746. The recored spherical power also behaved as expected (see image RH_ITMX_5Mar_SP.png):
-The spherical power starts decreasing slowly as the RH is turned on.
- After RH run, the maximum decrease in spherical power is approximately 70 microdiopters before starting to increase back to 0 again. The time scale between after RH is off and increase in spherical power is about 30 minutes.
The gradient plot shopws the evidence of this change in spherical power. All arrows grow outwards from the center and distributions of dx and dy change are more or less uniform around 0 (no apparent skewness) , which also imply that the ITMX HWS beam is correctly aligned on the center of ITMX. (see image RH_ITMX_Gradient_6Mar.png ).
For a long time we have not been offloading the green wfs from ETMY, because doing so would with the same code we use for END X would cause the optic to get a big kick. This morning Jim and I gave this another try, and saw that the main difference between the test masses is that ETMY had some plant inversion from 1-10 Hz, when we turned this off we could offload ETMY without a problem.
Apparently the current arrangement of ETM WFS used durring ALS locking needs these plant inversions to be on.
Monday: Low noise, Locking during med wind/useis
Tuesday: Maintenance (entire day)
Wednesday: SRC/TCS morning/afternoon, Low noise afterwards
Thursday: Low noise, WFS/90MHz centering
[Kiwamu, Aidan]
Courtesy of Kiwamu, a couple of photos that show the currently installed HWS SLEDs.
HWSY: QSDM-840-5_12.02.44
HWSX: QSDM-790-5_12.05.21
[Aidan, Kiwamu, Elli, Cao]
SUMMARY:
We prformed a definitive test to confirm the HWSY beam reflected off the HR surface of ITMY. The test arrived at the same conclusion as a previous test reported in alog25617.
The beam reflected from HR surface is the one observed at :
SR3 PITCH: 1458 urad
SR3 YAW : -216.9 urad
(The nominal value of SR3 PITCH and YAW at the moment are 563 and -153.9)
METHOD:
1. We turned of SR3 CAGE SERVO, and initiate excitations of PITCH and YAW of SR3. These excitations ran for about 5 hours yesterday, between 1141238996 and 1141254773 (gps time)
| Excitation | Amplitude (urad) | Frequency (mHz) |
| PITCH | 1500 | 10.3 |
| YAW | 2000 | 3.7 |
This allowed us to scan SR3 and map out all the possible reflected beams onto the HWSY from the TOTAL_PIXEL_VALUE recorded by the HWSY.
| Spot | PITCH (urad) | YAW (urad) |
| 1 | 563.4 | -153.9 |
| 2 | 1458 | -216.9 |
| 3 | 1332 | -1220 |
| 4 | 626.3 | 613.3 |
We will use the numbers to refer to each spot in the rest of this report. We are currently centered on beamspot 1
2. We modify the HWS magnification H1:TCS-ITMY_HWS_MAGNIFICATION from 17.5 to 7.5 according to T1400686
3. This morning, we moved SR3 alignment to the PITCH and YAW values corresponding to the four spots. At each spot:
- Stream the HWS images to make sure the spot was centered
-Create a new folder that does not contain reference *.mat file so the HWSY take new reference each time a new spot was centered.
-Start HWS and steam data
-Initiate 50 mHz, 2urad amplitude excitation on ITMY YAW (H1:SUS-ITMY_M0_OPTICALIGN_Y_EXC)
-Observe the changes in the three signals:
1. H1:SUS-ITMY_L3_OPLEV_YAW_OUTPUT (OPLEV Yaw)
2. H1:SUS-ITMY_M0_OPTICALIGN_Y_OUTPUT
3. H1:TCS-ITMY_HWS_PROBE_PRISM_X (Prism X)
- Let the excitation run for 5-10 mins, turn off the excitation, let the OPLEV Yaw and Prism X signals to stabilize and epeat the procedure for all the spots.
4. We then plot the signals H1:TCS-ITMY_HWS_PROBE_PRISM_X and H1:SUS-ITMY_L3_OPLEV_YAW_OUTPUT and compared the magnitude of oscillation in Prism X measured (if any). The one that has the largest 50 MHz signal is the one reflected off the HR surface of ITMY.
shows the four plots of time series of H1:TCS-ITMY_HWS_PROBE_PRISM_X signal compared to H1:SUS-ITMY_L3_OPLEV_YAW_OUTPUT. From these plots:
Beam spots 3 and 4: definitely do not reflected from any surface of ITMY since there is no evidence of 50 mHz oscilliation. They may come from the CP, which fit with the fact that CP is horizontally wedged. It is also interesting to note that the Prism X values for these two beams decrease contiously during measurement.
Beam spots 1 and 2: these two beams come from the 2 surfaces of ITMY.
The oscillation in X prism measured for beamspot 1 has an amplitude of approximately 0.6±0.2 urad
The oscillation in X prism measured for beamspot 2 has an amplitude of approximately 1.5±0.2 urad
Therefore, the magnitude of oscillation in x prism for beamspot 2 is greater. This can be clearly seen if the two time series are plotted together:
I remember that the clipping we saw was by the first steering mirror in the HAM4 chamber. I could see a bright scattering from the view port with an IR viewer.
We reproduced the clipping today on Mar 9th. We confirmed that the clipping occurred at the first in-vac lens (see HAM4 drawing), not the steering mirrors.
The TCS IFO mode simulation is running online and producing esimates for the round-trip Gouy phase of the SRC and PRC, the g-factors and HOM spacing of the X and Y arms. The assumed absorption in the optics is set to 250ppb per test mass but the arm power needs to be properly calibrated. However, when we see approximately 10mW of absorbed power in each of the test masses, we expect to see:
1445 hrs. local -> Back from X-end
This morning the PSL diffracted power was oscillating. We set H1:PSL-ISS_REFSIGNALto -1/97V, making the diffracted power ~7%. (Refsignal was -2V).
Rob, Evan, Sheila
We have been doing a little bit more work on ASC today. The main messages:
First we measured the DC centering loops for different configurations, because we have had different measurements come to different conclusions in the last few days about the stability of these loops. The gain of these loops is the same with no ASC on, with full DRMI ASC on, and in full lock without a DARM offset or any ASC on. However, changing the DARM offset changes the response of these loops (especially DC3, which is centering AS A), somehow adding more phase at the ugf for DC3 P+Y. The first four attachments are comparisions of the loop gains with and without a DARM offset on. The coherence is not good for the DC3 P measurement with a DARM offset on, the rest of the coherences are fine.
We then looked at the sensitivity of the TMS QPDs to transmon motion. We had originaly choosen a combination of QPDs that was insensitive to pit and yaw, but Rana has told us that at LLO it is more important to be insensitive to roll. We looked 60 day trends of the osems, and moved TMS some amount that was comparable to the drift according to the osems, and looked at the QPD response. If we believe the osems, the pit and yaw drifts are the most important for the QPDs by far, although for TMS Y there was also a small reponse to Roll and V (pushing on V also moved pit and yaw according to the osems, so this may explain the coupling of V to the QPDs).
Then we drove the transmons at 1.3 Hz and found the combination of QPDs that was least sensitive to TMS pit and yaw. We had done this last time in April, I think. We improved the sensitivity to all 4 angles by at least a factor of 10. The new input matrix is shown in the 5th attachment. We then closed the soft loops, without adjusting the offsets to account for the new input matrix (seems OK so far). Since the new input matrix is normalized so that the elements from each arm are 1, the digital gain for the soft loops is increased by 50%.
The first time we powered up I had tried increasing the offloading gain on all test masses by 20 dB, this may or may not have been the cause of a very slow instability where PRC2 Y, DSOFT and CSOFT rang up and eventually broke the lock.
Rob had a look at why we had been unable to run Gabriele's sensing matrix script. We would like to use this script instead of the lockins because we can easily add some sensors that aren't in the lockin matrix like the centering signals. One thing we noticed is that while we can easily add the DC centering signal, the RF centering signals are not in the frames. We probably want to add these to the frames anyway.
There were a couple of issues in the script, including an incorrect sampling frequency as well a hanging call to the python nds2 library and apparently some changes to markup.py. I have a version I'm working with in my home/scripts directory that used cdsutils instead. Here is the ASC PIT sensing matrix, measured in DC READOUT at 2W:Sensing matrix measurement Sensing matrix (abs)
| Excitation: | H1:ASC-INP1_P_SM_EXC | H1:ASC-PRC1_P_SM_EXC | H1:ASC-PRC2_P_SM_EXC | H1:ASC-MICH_P_SM_EXC | H1:ASC-SRC1_P_SM_EXC | H1:ASC-SRC2_P_SM_EXC | H1:ASC-DHARD_P_SM_EXC | H1:ASC-CHARD_P_SM_EXC | H1:ASC-DSOFT_P_SM_EXC | H1:ASC-CSOFT_P_SM_EXC |
| Monitor channel: | H1:ASC-INP1_P_SM_DQ | H1:ASC-PRC1_P_SM_DQ | H1:ASC-PRC2_P_SM_DQ | H1:ASC-MICH_P_SM_DQ | H1:ASC-SRC1_P_SM_DQ | H1:ASC-SRC2_P_SM_DQ | H1:ASC-DHARD_P_SM_DQ | H1:ASC-CHARD_P_SM_DQ | H1:ASC-DSOFT_P_SM_DQ | H1:ASC-CSOFT_P_SM_DQ |
| H1:ASC-AS_A_DC_PIT_OUT_DQ | 2.4e-06 | 2.0e-08 | 1.7e-06 | 9.7e-07 | 1.2e-06 | 7.4e-05 | 4.3e-07 | 3.0e-08 | 3.9e-08 | 2.9e-08 |
| H1:ASC-AS_A_RF36_I_PIT_OUT_DQ | 1.7e-02 | 5.8e-04 | 8.7e-02 | 3.6e-03 | 1.1e-02 | 1.6e+00 | 2.6e-04 | 5.4e-06 | 8.9e-05 | 4.0e-05 |
| H1:ASC-AS_A_RF36_Q_PIT_OUT_DQ | 3.0e-02 | 4.7e-04 | 4.6e-02 | 8.2e-03 | 2.0e-02 | 2.6e+00 | 1.7e-04 | 1.4e-05 | 2.8e-04 | 4.3e-05 |
| H1:ASC-AS_A_RF45_I_PIT_OUT_DQ | 3.5e-03 | 6.5e-05 | 1.3e-02 | 1.7e-03 | 2.2e-03 | 3.5e-01 | 1.0e-05 | 7.6e-06 | 6.1e-05 | 6.6e-07 |
| H1:ASC-AS_A_RF45_Q_PIT_OUT_DQ | 1.2e-03 | 1.9e-04 | 2.0e-02 | 5.7e-03 | 1.7e-02 | 1.1e+00 | 3.0e-03 | 2.3e-04 | 2.8e-04 | 1.7e-04 |
| H1:ASC-AS_B_DC_PIT_OUT_DQ | 5.8e-07 | 8.2e-08 | 1.0e-05 | 5.4e-07 | 2.4e-06 | 9.0e-05 | 3.0e-07 | 1.6e-08 | 2.9e-08 | 2.3e-08 |
| H1:ASC-AS_B_RF36_I_PIT_OUT_DQ | 1.3e-02 | 1.7e-04 | 3.7e-02 | 3.1e-03 | 2.0e-02 | 2.2e+00 | 3.1e-04 | 2.3e-05 | 6.8e-05 | 6.2e-05 |
| H1:ASC-AS_B_RF36_Q_PIT_OUT_DQ | 1.9e-02 | 1.8e-04 | 3.2e-02 | 9.1e-03 | 9.8e-03 | 1.7e+00 | 1.3e-04 | 2.1e-05 | 2.8e-04 | 1.5e-05 |
| H1:ASC-AS_B_RF45_I_PIT_OUT_DQ | 3.1e-03 | 1.1e-04 | 1.8e-02 | 1.2e-03 | 3.9e-04 | 2.1e-01 | 2.7e-05 | 6.8e-06 | 4.3e-05 | 1.7e-06 |
| H1:ASC-AS_B_RF45_Q_PIT_OUT_DQ | 1.3e-02 | 5.2e-04 | 6.4e-02 | 4.5e-03 | 1.9e-02 | 9.8e-01 | 2.7e-03 | 2.3e-04 | 2.4e-04 | 1.8e-04 |
| H1:ASC-AS_C_PIT_OUT_DQ | 1.5e-06 | 1.1e-07 | 1.5e-05 | 1.9e-07 | 2.9e-06 | 1.3e-04 | 9.4e-08 | 3.8e-09 | 6.9e-09 | 8.7e-09 |
| H1:ASC-REFL_A_DC_PIT_OUT_DQ | 3.6e-06 | 3.8e-08 | 1.2e-05 | 1.1e-06 | 7.8e-08 | 1.1e-05 | 8.2e-08 | 8.0e-08 | 1.1e-08 | 3.2e-08 |
| H1:ASC-REFL_A_RF9_I_PIT_OUT_DQ | 1.9e+00 | 1.9e-03 | 3.9e-01 | 2.0e-03 | 3.0e-03 | 6.4e-01 | 2.1e-05 | 3.7e-04 | 1.9e-05 | 8.8e-05 |
| H1:ASC-REFL_A_RF9_Q_PIT_OUT_DQ | 3.8e-01 | 2.6e-04 | 4.5e-02 | 4.0e-04 | 2.0e-04 | 7.5e-02 | 1.5e-05 | 1.0e-04 | 1.3e-05 | 1.3e-05 |
| H1:ASC-REFL_A_RF45_I_PIT_OUT_DQ | 2.0e+00 | 2.1e-03 | 1.4e-01 | 2.5e-03 | 1.3e-04 | 1.8e-01 | 3.4e-05 | 4.1e-04 | 4.1e-05 | 7.3e-05 |
| H1:ASC-REFL_A_RF45_Q_PIT_OUT_DQ | 4.9e-01 | 6.3e-04 | 6.7e-02 | 9.6e-04 | 1.1e-03 | 1.3e-01 | 1.4e-06 | 1.1e-04 | 1.3e-05 | 9.3e-06 |
| H1:ASC-REFL_B_DC_PIT_OUT_DQ | 1.6e-04 | 4.5e-08 | 7.2e-06 | 1.0e-06 | 1.9e-07 | 1.2e-05 | 3.4e-08 | 3.8e-08 | 1.3e-08 | 2.7e-08 |
| H1:ASC-REFL_B_RF9_I_PIT_OUT_DQ | 1.7e+00 | 6.1e-03 | 3.8e-01 | 2.3e-03 | 3.5e-03 | 6.7e-01 | 5.0e-05 | 3.4e-04 | 1.5e-05 | 7.8e-05 |
| H1:ASC-REFL_B_RF9_Q_PIT_OUT_DQ | 4.3e-01 | 1.2e-03 | 7.0e-02 | 4.4e-04 | 6.7e-04 | 1.2e-01 | 1.0e-05 | 4.7e-05 | 3.2e-06 | 1.5e-05 |
| H1:ASC-REFL_B_RF45_I_PIT_OUT_DQ | 1.9e+00 | 2.5e-03 | 2.0e-01 | 7.2e-04 | 4.4e-03 | 2.7e-01 | 4.8e-05 | 4.1e-04 | 3.6e-05 | 3.5e-05 |
| H1:ASC-REFL_B_RF45_Q_PIT_OUT_DQ | 6.5e-01 | 6.1e-04 | 1.1e-01 | 1.5e-03 | 3.2e-03 | 3.2e-01 | 2.7e-05 | 1.4e-04 | 2.3e-05 | 1.8e-05 |
| H1:ASC-POP_A_PIT_OUT_DQ | 1.3e-06 | 3.6e-08 | 1.0e-06 | 9.5e-08 | 2.1e-08 | 1.9e-06 | 3.6e-10 | 6.6e-09 | 5.4e-10 | 4.3e-10 |
| H1:ASC-POP_B_PIT_OUT_DQ | 7.0e-07 | 9.7e-08 | 7.0e-07 | 5.5e-08 | 2.0e-08 | 1.9e-06 | 2.1e-09 | 2.8e-09 | 1.0e-09 | 6.0e-10 |
| H1:ASC-X_TR_A_PIT_OUT_DQ | 1.0e-06 | 1.1e-08 | 5.6e-07 | 1.9e-08 | 1.9e-07 | 1.3e-05 | 1.2e-08 | 1.1e-08 | 6.8e-10 | 3.9e-10 |
| H1:ASC-X_TR_B_PIT_OUT_DQ | 9.3e-07 | 1.0e-08 | 5.1e-07 | 1.1e-08 | 1.8e-07 | 1.2e-05 | 1.1e-08 | 1.1e-08 | 1.1e-09 | 9.4e-11 |
| H1:ASC-Y_TR_A_PIT_OUT_DQ | 6.1e-07 | 1.3e-08 | 8.7e-07 | 1.4e-08 | 1.9e-07 | 1.6e-05 | 1.2e-08 | 1.2e-08 | 1.3e-09 | 1.2e-09 |
| H1:ASC-Y_TR_B_PIT_OUT_DQ | 4.7e-07 | 1.2e-09 | 1.5e-07 | 2.8e-09 | 5.6e-08 | 2.1e-06 | 1.8e-09 | 1.7e-09 | 1.9e-09 | 2.0e-09 |
| Excitation: | H1:ASC-INP1_P_SM_EXC | H1:ASC-PRC1_P_SM_EXC | H1:ASC-PRC2_P_SM_EXC | H1:ASC-MICH_P_SM_EXC | H1:ASC-SRC1_P_SM_EXC | H1:ASC-SRC2_P_SM_EXC | H1:ASC-DHARD_P_SM_EXC | H1:ASC-CHARD_P_SM_EXC | H1:ASC-DSOFT_P_SM_EXC | H1:ASC-CSOFT_P_SM_EXC |
| Monitor channel: | H1:ASC-INP1_P_SM_DQ | H1:ASC-PRC1_P_SM_DQ | H1:ASC-PRC2_P_SM_DQ | H1:ASC-MICH_P_SM_DQ | H1:ASC-SRC1_P_SM_DQ | H1:ASC-SRC2_P_SM_DQ | H1:ASC-DHARD_P_SM_DQ | H1:ASC-CHARD_P_SM_DQ | H1:ASC-DSOFT_P_SM_DQ | H1:ASC-CSOFT_P_SM_DQ |
| H1:ASC-AS_A_DC_PIT_OUT_DQ | 0.04 | 0.43 | 0.65 | 0.65 | 0.85 | 0.64 | 1.00 | 0.78 | 0.71 | 0.88 |
| H1:ASC-AS_A_RF36_I_PIT_OUT_DQ | 0.01 | 0.60 | 0.94 | 0.92 | 0.59 | 0.91 | 0.98 | 0.05 | 0.84 | 0.83 |
| H1:ASC-AS_A_RF36_Q_PIT_OUT_DQ | 0.01 | 0.29 | 0.64 | 0.98 | 0.66 | 0.89 | 0.94 | 0.15 | 0.97 | 0.78 |
| H1:ASC-AS_A_RF45_I_PIT_OUT_DQ | 0.01 | 0.30 | 0.89 | 0.89 | 0.58 | 0.88 | 0.27 | 0.23 | 0.94 | 0.01 |
| H1:ASC-AS_A_RF45_Q_PIT_OUT_DQ | 0.00 | 0.20 | 0.61 | 0.88 | 0.86 | 0.85 | 1.00 | 0.94 | 0.95 | 0.97 |
| H1:ASC-AS_B_DC_PIT_OUT_DQ | 0.00 | 0.90 | 0.98 | 0.40 | 0.94 | 0.70 | 1.00 | 0.54 | 0.65 | 0.78 |
| H1:ASC-AS_B_RF36_I_PIT_OUT_DQ | 0.00 | 0.07 | 0.63 | 0.75 | 0.73 | 0.90 | 0.98 | 0.32 | 0.69 | 0.87 |
| H1:ASC-AS_B_RF36_Q_PIT_OUT_DQ | 0.01 | 0.12 | 0.67 | 0.98 | 0.52 | 0.84 | 0.92 | 0.30 | 0.97 | 0.31 |
| H1:ASC-AS_B_RF45_I_PIT_OUT_DQ | 0.01 | 0.73 | 0.97 | 0.98 | 0.08 | 0.74 | 0.85 | 0.55 | 0.97 | 0.23 |
| H1:ASC-AS_B_RF45_Q_PIT_OUT_DQ | 0.01 | 0.71 | 0.95 | 0.91 | 0.91 | 0.73 | 1.00 | 0.97 | 0.97 | 0.98 |
| H1:ASC-AS_C_PIT_OUT_DQ | 0.01 | 0.88 | 0.99 | 0.79 | 0.94 | 0.97 | 1.00 | 0.72 | 0.87 | 0.97 |
| H1:ASC-REFL_A_DC_PIT_OUT_DQ | 0.16 | 0.76 | 0.99 | 0.01 | 0.03 | 0.02 | 0.08 | 0.08 | 0.00 | 0.03 |
| H1:ASC-REFL_A_RF9_I_PIT_OUT_DQ | 1.00 | 0.98 | 1.00 | 0.14 | 0.20 | 0.36 | 0.02 | 0.93 | 0.02 | 0.65 |
| H1:ASC-REFL_A_RF9_Q_PIT_OUT_DQ | 1.00 | 0.96 | 0.99 | 0.02 | 0.02 | 0.14 | 0.04 | 0.72 | 0.02 | 0.09 |
| H1:ASC-REFL_A_RF45_I_PIT_OUT_DQ | 1.00 | 0.99 | 0.97 | 0.03 | 0.00 | 0.06 | 0.01 | 0.69 | 0.01 | 0.13 |
| H1:ASC-REFL_A_RF45_Q_PIT_OUT_DQ | 1.00 | 0.98 | 0.99 | 0.20 | 0.37 | 0.29 | 0.00 | 0.92 | 0.08 | 0.15 |
| H1:ASC-REFL_B_DC_PIT_OUT_DQ | 1.00 | 0.80 | 0.92 | 0.05 | 0.14 | 0.02 | 0.06 | 0.10 | 0.01 | 0.16 |
| H1:ASC-REFL_B_RF9_I_PIT_OUT_DQ | 1.00 | 1.00 | 1.00 | 0.52 | 0.28 | 0.43 | 0.37 | 0.98 | 0.05 | 0.83 |
| H1:ASC-REFL_B_RF9_Q_PIT_OUT_DQ | 1.00 | 1.00 | 1.00 | 0.08 | 0.29 | 0.46 | 0.08 | 0.77 | 0.01 | 0.36 |
| H1:ASC-REFL_B_RF45_I_PIT_OUT_DQ | 1.00 | 0.99 | 0.99 | 0.02 | 0.53 | 0.12 | 0.11 | 0.93 | 0.04 | 0.18 |
| H1:ASC-REFL_B_RF45_Q_PIT_OUT_DQ | 0.99 | 0.95 | 0.99 | 0.54 | 0.61 | 0.52 | 0.36 | 0.97 | 0.26 | 0.49 |
| H1:ASC-POP_A_PIT_OUT_DQ | 0.46 | 0.99 | 0.97 | 0.19 | 0.10 | 0.03 | 0.01 | 0.65 | 0.01 | 0.02 |
| H1:ASC-POP_B_PIT_OUT_DQ | 0.34 | 1.00 | 0.97 | 0.05 | 0.19 | 0.06 | 0.08 | 0.19 | 0.02 | 0.02 |
| H1:ASC-X_TR_A_PIT_OUT_DQ | 0.13 | 0.77 | 0.78 | 0.22 | 0.70 | 0.33 | 0.99 | 1.00 | 0.30 | 0.31 |
| H1:ASC-X_TR_B_PIT_OUT_DQ | 0.13 | 0.76 | 0.78 | 0.40 | 0.70 | 0.32 | 1.00 | 1.00 | 0.89 | 0.23 |
| H1:ASC-Y_TR_A_PIT_OUT_DQ | 0.06 | 0.80 | 0.89 | 0.41 | 0.67 | 0.47 | 1.00 | 1.00 | 0.91 | 0.98 |
| H1:ASC-Y_TR_B_PIT_OUT_DQ | 0.41 | 0.44 | 0.82 | 0.15 | 0.79 | 0.19 | 0.99 | 0.99 | 0.98 | 1.00 |
| Excitation: | H1:ASC-INP1_P_SM_EXC | H1:ASC-PRC1_P_SM_EXC | H1:ASC-PRC2_P_SM_EXC | H1:ASC-MICH_P_SM_EXC | H1:ASC-SRC1_P_SM_EXC | H1:ASC-SRC2_P_SM_EXC | H1:ASC-DHARD_P_SM_EXC | H1:ASC-CHARD_P_SM_EXC | H1:ASC-DSOFT_P_SM_EXC | H1:ASC-CSOFT_P_SM_EXC |
| Monitor channel: | H1:ASC-INP1_P_SM_DQ | H1:ASC-PRC1_P_SM_DQ | H1:ASC-PRC2_P_SM_DQ | H1:ASC-MICH_P_SM_DQ | H1:ASC-SRC1_P_SM_DQ | H1:ASC-SRC2_P_SM_DQ | H1:ASC-DHARD_P_SM_DQ | H1:ASC-CHARD_P_SM_DQ | H1:ASC-DSOFT_P_SM_DQ | H1:ASC-CSOFT_P_SM_DQ |
| H1:ASC-AS_A_DC_PIT_OUT_DQ | -1.3e-07 + -2.4e-06i | 5.1e-09 + 2.0e-08i | -1.4e-06 + -8.9e-07i | -8.0e-07 + 5.4e-07i | -3.9e-07 + 1.1e-06i | 1.2e-05 + -7.3e-05i | -3.8e-07 + 2.1e-07i | 2.7e-08 + -1.4e-08i | -3.1e-08 + 2.4e-08i | 2.7e-08 + -1.1e-08i |
| H1:ASC-AS_A_RF36_I_PIT_OUT_DQ | -1.3e-03 + 1.7e-02i | 5.6e-04 + 1.7e-04i | -8.4e-02 + 2.4e-02i | 2.6e-03 + -2.4e-03i | -4.8e-04 + -1.1e-02i | -1.1e+00 + 1.2e+00i | 2.1e-04 + -1.6e-04i | 2.0e-06 + 5.1e-06i | -7.3e-05 + 5.0e-05i | -3.6e-05 + 1.7e-05i |
| H1:ASC-AS_A_RF36_Q_PIT_OUT_DQ | -2.4e-02 + 1.8e-02i | 4.3e-04 + 1.8e-04i | -4.5e-02 + -3.7e-03i | -6.8e-03 + 4.5e-03i | 1.8e-02 + -6.9e-03i | -2.5e+00 + -6.7e-01i | 3.1e-05 + -1.6e-04i | 9.9e-06 + 9.8e-06i | 2.3e-04 + -1.7e-04i | -3.2e-05 + 2.9e-05i |
| H1:ASC-AS_A_RF45_I_PIT_OUT_DQ | 2.6e-03 + 2.3e-03i | 6.3e-05 + 1.7e-05i | -1.2e-02 + 5.7e-03i | 1.4e-03 + -9.0e-04i | -2.2e-03 + -5.4e-04i | 2.0e-01 + 2.9e-01i | 7.7e-07 + 1.0e-05i | 5.3e-06 + -5.4e-06i | -5.0e-05 + 3.5e-05i | -4.7e-07 + -4.5e-07i |
| H1:ASC-AS_A_RF45_Q_PIT_OUT_DQ | -6.0e-04 + 1.0e-03i | -5.2e-05 + -1.8e-04i | 1.9e-02 + 3.9e-03i | -4.7e-03 + 3.3e-03i | -1.6e-02 + -2.2e-03i | -1.1e+00 + 3.1e-01i | -2.7e-03 + 1.4e-03i | 2.1e-04 + -8.6e-05i | -2.4e-04 + 1.4e-04i | 1.6e-04 + -6.8e-05i |
| H1:ASC-AS_B_DC_PIT_OUT_DQ | 4.6e-07 + 3.5e-07i | -8.0e-08 + -2.1e-08i | 8.8e-06 + -5.6e-06i | 4.7e-07 + -2.7e-07i | 1.4e-06 + -1.9e-06i | -2.0e-05 + 8.8e-05i | 2.6e-07 + -1.5e-07i | -1.5e-08 + 5.5e-09i | 2.5e-08 + -1.5e-08i | -2.0e-08 + 1.1e-08i |
| H1:ASC-AS_B_RF36_I_PIT_OUT_DQ | -2.5e-03 + -1.3e-02i | -1.6e-04 + -6.3e-05i | 3.7e-02 + 7.6e-03i | -2.2e-03 + 2.2e-03i | -3.4e-03 + 2.0e-02i | 1.5e+00 + -1.6e+00i | -2.3e-04 + 2.1e-04i | -2.1e-05 + 8.9e-06i | 5.2e-05 + -4.4e-05i | 5.2e-05 + -3.5e-05i |
| H1:ASC-AS_B_RF36_Q_PIT_OUT_DQ | -1.5e-02 + -1.1e-02i | -8.1e-05 + 1.7e-04i | 9.2e-03 + -3.1e-02i | -6.7e-03 + 6.2e-03i | 9.7e-03 + 1.7e-03i | -1.1e+00 + -1.3e+00i | -1.3e-04 + -1.0e-05i | 1.3e-05 + -1.6e-05i | 2.2e-04 + -1.6e-04i | -8.3e-06 + 1.3e-05i |
| H1:ASC-AS_B_RF45_I_PIT_OUT_DQ | -1.1e-03 + -2.9e-03i | -1.0e-04 + -4.8e-05i | 1.7e-02 + -5.9e-03i | -1.0e-03 + 6.0e-04i | 3.8e-04 + -9.6e-05i | -1.1e-01 + -1.8e-01i | 2.2e-05 + -1.5e-05i | -6.4e-06 + 2.2e-06i | 3.6e-05 + -2.3e-05i | -1.1e-07 + 1.7e-06i |
| H1:ASC-AS_B_RF45_Q_PIT_OUT_DQ | 3.8e-03 + -1.3e-02i | -5.2e-04 + -2.1e-07i | 5.2e-02 + -3.8e-02i | 3.8e-03 + -2.4e-03i | 1.9e-02 + -1.9e-03i | 9.7e-01 + -1.3e-01i | 2.5e-03 + -1.0e-03i | -2.2e-04 + 3.6e-05i | 2.1e-04 + -1.2e-04i | -1.7e-04 + 5.7e-05i |
| H1:ASC-AS_C_PIT_OUT_DQ | 5.7e-09 + 1.5e-06i | 7.5e-08 + 7.7e-08i | -1.5e-05 + 1.4e-07i | 1.4e-07 + -1.3e-07i | -2.9e-06 + 4.2e-08i | 1.3e-04 + -4.8e-05i | 8.2e-08 + -4.4e-08i | -3.7e-09 + 8.6e-10i | 6.1e-09 + -3.2e-09i | -7.7e-09 + 3.9e-09i |
| H1:ASC-REFL_A_DC_PIT_OUT_DQ | 4.3e-07 + -3.5e-06i | -2.6e-08 + -2.8e-08i | -1.2e-05 + 1.8e-06i | -8.2e-07 + -7.1e-07i | -4.7e-08 + 6.2e-08i | 9.7e-06 + -5.4e-06i | 3.6e-08 + -7.3e-08i | 2.2e-08 + -7.7e-08i | 1.0e-08 + -5.5e-09i | -3.1e-08 + -8.5e-09i |
| H1:ASC-REFL_A_RF9_I_PIT_OUT_DQ | 4.7e-01 + -1.8e+00i | -1.4e-03 + -1.3e-03i | 3.9e-01 + -2.2e-02i | 1.0e-03 + -1.7e-03i | -2.9e-03 + -5.1e-04i | 1.0e-01 + 6.3e-01i | 2.1e-05 + -7.9e-07i | 3.4e-04 + -1.4e-04i | -1.6e-05 + 1.0e-05i | 8.7e-05 + -1.6e-05i |
| H1:ASC-REFL_A_RF9_Q_PIT_OUT_DQ | 9.2e-02 + -3.7e-01i | -1.9e-04 + -1.9e-04i | 4.5e-02 + -2.0e-03i | 1.6e-04 + -3.7e-04i | 1.1e-04 + 1.6e-04i | 1.4e-02 + 7.4e-02i | 6.2e-06 + -1.3e-05i | 9.0e-05 + -4.8e-05i | 3.3e-06 + 1.2e-05i | 5.8e-06 + -1.1e-05i |
| H1:ASC-REFL_A_RF45_I_PIT_OUT_DQ | 4.7e-01 + -1.9e+00i | 1.8e-03 + 1.1e-03i | -1.4e-01 + 1.6e-02i | -2.2e-03 + 1.2e-03i | 1.2e-04 + 6.2e-05i | -9.4e-02 + -1.6e-01i | -2.7e-05 + 2.1e-05i | 3.9e-04 + -1.2e-04i | -1.0e-05 + -4.0e-05i | 3.2e-05 + 6.6e-05i |
| H1:ASC-REFL_A_RF45_Q_PIT_OUT_DQ | 1.1e-01 + -4.8e-01i | 4.9e-04 + 4.0e-04i | -6.7e-02 + 5.8e-03i | -6.4e-04 + -7.2e-04i | 8.1e-04 + 6.9e-04i | -4.8e-02 + -1.2e-01i | -1.5e-08 + 1.4e-06i | 1.0e-04 + -3.4e-05i | 9.4e-06 + 8.6e-06i | -8.5e-06 + 3.8e-06i |
| H1:ASC-REFL_B_DC_PIT_OUT_DQ | -3.5e-05 + 1.6e-04i | -4.4e-08 + -1.3e-08i | 7.0e-06 + -1.3e-06i | 7.1e-07 + -7.7e-07i | -1.1e-07 + -1.5e-07i | -2.2e-06 + 1.2e-05i | -3.0e-08 + -1.5e-08i | -3.8e-08 + -1.0e-09i | -5.7e-09 + 1.2e-08i | 1.7e-09 + -2.7e-08i |
| H1:ASC-REFL_B_RF9_I_PIT_OUT_DQ | -4.0e-01 + 1.6e+00i | -4.7e-03 + -3.9e-03i | 3.8e-01 + -2.1e-02i | 2.1e-03 + -9.4e-04i | -3.1e-03 + -1.7e-03i | 3.8e-02 + 6.7e-01i | -4.4e-05 + 2.4e-05i | 3.0e-04 + -1.6e-04i | -1.3e-05 + 5.6e-06i | 7.0e-05 + -3.5e-05i |
| H1:ASC-REFL_B_RF9_Q_PIT_OUT_DQ | -1.1e-01 + 4.2e-01i | -9.4e-04 + -7.7e-04i | 7.0e-02 + -4.2e-03i | 4.2e-04 + -1.3e-04i | -5.8e-04 + -3.3e-04i | 4.7e-03 + 1.2e-01i | -1.0e-05 + 1.6e-06i | 3.7e-05 + -2.8e-05i | 3.2e-06 + -2.4e-07i | 1.0e-05 + -1.2e-05i |
| H1:ASC-REFL_B_RF45_I_PIT_OUT_DQ | -4.9e-01 + 1.8e+00i | -1.9e-03 + -1.6e-03i | -2.0e-01 + 1.8e-02i | -7.1e-04 + -1.3e-04i | 4.3e-03 + 1.2e-03i | -1.1e-01 + -2.5e-01i | -4.8e-05 + -9.7e-07i | 3.6e-04 + -2.0e-04i | 2.5e-05 + 2.6e-05i | -3.3e-05 + -1.2e-05i |
| H1:ASC-REFL_B_RF45_Q_PIT_OUT_DQ | -1.7e-01 + 6.3e-01i | -5.3e-04 + -3.1e-04i | -1.1e-01 + 7.2e-03i | -6.9e-04 + 1.3e-03i | 2.7e-03 + 1.7e-03i | -7.3e-02 + -3.1e-01i | -2.1e-05 + 1.7e-05i | 1.2e-04 + -6.5e-05i | 1.3e-05 + -1.9e-05i | -1.7e-05 + 5.4e-06i |
| H1:ASC-POP_A_PIT_OUT_DQ | -4.0e-07 + 1.2e-06i | 3.0e-08 + 2.0e-08i | -9.8e-07 + 2.0e-07i | -9.4e-08 + 1.2e-08i | 1.8e-08 + 1.1e-08i | -1.9e-06 + 9.5e-09i | -2.4e-10 + 2.6e-10i | 5.7e-09 + -3.3e-09i | 3.2e-10 + -4.3e-10i | 3.0e-10 + -3.1e-10i |
| H1:ASC-POP_B_PIT_OUT_DQ | -1.2e-07 + 6.9e-07i | 7.8e-08 + 5.8e-08i | 6.9e-07 + -1.1e-07i | -4.8e-08 + -2.7e-08i | -2.0e-08 + 1.2e-09i | 1.8e-06 + -1.9e-07i | 2.0e-09 + -1.7e-10i | -2.4e-09 + 1.3e-09i | 1.0e-09 + -1.6e-10i | -1.4e-10 + -5.8e-10i |
| H1:ASC-X_TR_A_PIT_OUT_DQ | 3.6e-07 + -9.4e-07i | 7.9e-09 + 7.4e-09i | -5.6e-07 + 7.2e-09i | -1.6e-08 + 9.6e-09i | -1.7e-07 + -9.1e-08i | -1.2e-05 + 5.4e-06i | -1.0e-08 + 5.9e-09i | -9.9e-09 + 5.6e-09i | -2.7e-10 + 6.2e-10i | 3.6e-10 + -1.3e-10i |
| H1:ASC-X_TR_B_PIT_OUT_DQ | 3.4e-07 + -8.7e-07i | 7.2e-09 + 6.9e-09i | -5.1e-07 + 6.0e-10i | -8.5e-09 + 6.8e-09i | -1.6e-07 + -8.6e-08i | -1.1e-05 + 5.0e-06i | -9.6e-09 + 5.1e-09i | -9.4e-09 + 5.1e-09i | -8.6e-10 + 7.0e-10i | -5.3e-11 + 7.8e-11i |
| H1:ASC-Y_TR_A_PIT_OUT_DQ | 2.3e-07 + -5.7e-07i | 7.2e-09 + 1.1e-08i | -8.6e-07 + -1.4e-07i | 1.2e-08 + -6.4e-09i | 1.7e-07 + 6.6e-08i | 1.3e-05 + -9.4e-06i | 1.0e-08 + -5.6e-09i | -1.1e-08 + 5.8e-09i | 1.2e-09 + -5.7e-10i | -1.0e-09 + 5.4e-10i |
| H1:ASC-Y_TR_B_PIT_OUT_DQ | -7.6e-08 + 4.7e-07i | 9.1e-10 + 7.9e-10i | -1.5e-07 + 4.6e-08i | 2.6e-09 + -9.7e-10i | 5.5e-08 + 1.4e-08i | 1.6e-06 + -1.4e-06i | 1.5e-09 + -9.2e-10i | -1.5e-09 + 8.4e-10i | 1.7e-09 + -8.8e-10i | -1.7e-09 + 9.3e-10i |
