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E121 E127 E132 E125 E143 laser_cooling_2021 E142 Ê128 E146 E0052 E0018 E0028 E0038

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ID	Date	Author	Category	Subject	Year
71	Fri Mar 20 04:29:45 2020	Jan	DAQ	DAQ settings for the first night

Attachment 1: e127.trlo
// -- C++ -- /// ********************** // SETUP FILE FOR // E127 experiment at ESR 2020 /// ********************** ///////////////////////////////// // ADC GATES si_stretch = 2000 ns; si_delay = 0 ns; target_stretch = 15000 ns; target_delay = 5000 ns; //5000 ns; master_delay = 800 ns; ////////////////////////////////// /// DOWNSCALING by 2^n // n=5 >> 32 // n=6 >> 64 // n=7 >> 128 // n=8 >> 256 // n=9 >> 512 // TARGET ON si_red = 0; xray_red = 0; baf_red = 5;//5; // TARGET OFF si_red_OFF = 0; xray_red_OFF = 0; baf_red_OFF = 0;//5; ////////////////////////////////// // INPUTS si_y = ECL_IN(1); si_x = ECL_IN(2); xray1 = ECL_IN(3); xray2 = ECL_IN(4); xray3 = ECL_IN(5); baf = ECL_IN(6); // = ECL_IN(7); // = ECL_IN(8); // = ECL_IN(9); // = ECL_IN(10); // = ECL_IN(11); trafo = ECL_IN(12); I_cool = ECL_IN(13); U_cool = ECL_IN(14); jet_S1 = ECL_IN(15); // = ECL_IN(16); jet_on = LEMO_IN(1); jet_off = LEMO_IN(2); ////////////////////////////// // OUTPUTS si_gate = GATE_DELAY(1); target_gate = GATE_DELAY(3); qdc_gate = GATE_DELAY(4); master_trig = GATE_DELAY(2); pico_a = si_gate; pico_b = target_gate; ////////////////////////////// // CONSTANTS long_gate = 2000 ns; short_gate = 650 ns; SECTION(all) { FRONT_LED(1) = TRIMI_TDT; SERIAL_TSTAMP_IN = SERIAL_TSTAMP_OUT; SERIAL_TSTAMP_LATCH = ACCEPT_PULSE; slew_counter_add = 0x1000000; fast_busy_len = 1000 ns; DEADTIME_IN(1) = TRIMI_TDT; ///////////////////////////////////////////////////////////// //PULSER // mega_clock period(4) = 1 us; // needed by UDP reader // TRIGGER 11 >> interval for scaler readouts period(1) = 1000 ms; ///////////////////////////////////////////////////////////// // TRIGGERS // coinc window length accept_window_len = 1950 ns; // THESE ARE THE VULOM INPUTS (det. triggers) // STRETCH THE TRIGGER SIGNAL LONGER THAN THE accept_window_len lmu_restart_mode(1) = LEAD_IF_INACT \| GATE_ENABLE; lmu_stretch(1) = long_gate; // front-back coinc gate trig_stretch(1) = long_gate; trig_stretch(2) = long_gate; trig_stretch(3) = long_gate; trig_stretch(9) = long_gate; trig_stretch(10) = long_gate; trig_stretch(11) = long_gate; // SET UP DELAYS TO MATCH THE TRIGGER SIGNALS //trig_delay(1) = 800 ns; //trig_delay(2) = 800 ns; //trig_delay(3) = 1120 ns; //trig_delay(9) = 800 ns; //trig_delay(10) = 800 ns; //trig_delay(11) = 800 ns; // STANDARD IS MODE_LEADING_EDGE (trigger on the falling edge) // MODE_WHEN_PRESENT: check, if a signal is on (e.g. SPILL ON) //trig_delay_mode(1) = MODE_THIS \| MODE_LEADING_EDGE; // DOWNSCALING FACTORS // THIS IS FOR GENERATED TPATS (so downscale tpat number with red==2^n) trig_red(1) = si_red; trig_red(2) = xray_red; trig_red(3) = baf_red; trig_red(9) = si_red_OFF; trig_red(10) = xray_red_OFF; trig_red(11) = baf_red_OFF; // ONLY NEEDED FOR MULTI-EVENT MODE / NO NEED NOW //multi_trigger = 1; //////////////////////////////////////////////////// // LMU SETUP // THIS IS THE LOGIC MATRIX. // TRIG_LMU_OUT(n) with 'n' being the tpat. // TRIG_LMU_AUX 1 // silicon x/y OR LMU_IN(1) = si_x; LMU_IN(2) = si_y; LMU_OUT(1) = LMU_IN(1) or LMU_IN(2); TRIG_LMU_AUX(1) = LMU_OUT(1); // TRIG_LMU_AUX 2 // xray OR all_or_mask(2) = xray1 \| xray2 \| xray3; LMU_IN(3) = ALL_OR(2); LMU_OUT(2) = LMU_IN(3); TRIG_LMU_AUX(2) = ALL_OR(2); // TRIG_LMU 3 // BaF OR LMU_IN(4) = baf; LMU_OUT(4) = LMU_IN(4); // BaF single TRIG_LMU_AUX(3) = LMU_OUT(4); // TRIG_PENDING[11] = PULSER(1); // TARGET_ON flag is TRIG_LMU_AUX(4) // TARGET_ON_TRIGGERS TRIG_LMU_OUT(1) = TRIG_LMU_AUX(1) and TRIG_LMU_AUX(4); //Si_ON TRIG_LMU_OUT(2) = TRIG_LMU_AUX(2) and TRIG_LMU_AUX(4); //Xray_ON TRIG_LMU_OUT(3) = TRIG_LMU_AUX(3) and TRIG_LMU_AUX(4); //BaF_ON TRIG_LMU_OUT(4) = TRIG_LMU_AUX(1) and TRIG_LMU_AUX(3) and TRIG_LMU_AUX(4); //BaF+Si_ON //TRIG_LMU_OUT(4) = ; //TRIG_LMU_OUT(5) = ; //TRIG_LMU_OUT(6) = ; //TRIG_LMU_OUT(7) = ; //TRIG_LMU_OUT(8) = ; // TARGET_OFF_TRIGGERS TRIG_LMU_OUT(9) = TRIG_LMU_AUX(1) and not TRIG_LMU_AUX(4); //Si_OFF TRIG_LMU_OUT(10) = TRIG_LMU_AUX(2) and not TRIG_LMU_AUX(4); //Xray_OFF TRIG_LMU_OUT(11) = TRIG_LMU_AUX(3) and not TRIG_LMU_AUX(4); //BaF_OFF //TRIG_LMU_OUT(12) = ; //TRIG_LMU_OUT(13) = ; //TRIG_LMU_OUT(14) = ; //TRIG_LMU_OUT(15) = ; TRIG_LMU_OUT(16) = si_x and si_y and xray1 and xray2 and xray3 and baf and trafo and I_cool and U_cool and jet_S1; //////////////////////////////////////////////////////////// // TPAT SETUP // THIS IS FOR MATCHING: TPAT -> MBS_TRIGGER // tpat_trig(n) = m // with n = tpat, m = MBS_trigger // MBS trigger 1 = JET_ON tpat_trig(1) = 1; tpat_trig(2) = 1; tpat_trig(3) = 1; tpat_trig(4) = 1; tpat_trig(5) = 1; tpat_trig(6) = 1; tpat_trig(7) = 1; tpat_trig(8) = 1; // MBS_trigger 2 = JET_OFF tpat_trig(9) = 2; tpat_trig(10) = 2; tpat_trig(11) = 2; tpat_trig(12) = 2; tpat_trig(13) = 2; tpat_trig(14) = 2; tpat_trig(15) = 2; tpat_trig(16) = 2; // THIS IS FOR ENABLING THE SINGLE TPATS // WITH A MASK, OR THE TPATS, OR RANGES WITH n : m. tpat_enable = 1:4, 9:11; //tpat_enable = 9:11; //tpat_enable = mask 0xffff; /////////////////////////////////////////////////////// // GATE & DELAY (MAX=4) // SET UP THE GATES AND DELAYS // Silicon ADC gate // si_gate GATE_DELAY(1) = MASTER_START; delay(1) = si_delay; stretch(1) = si_stretch; // Masterstart/trigger // master_trig GATE_DELAY(2) = MASTER_START; delay(2) = master_delay; stretch(2) = 200 ns; // Xray/BaF ADC gate // target_gate GATE_DELAY(3) = MASTER_START; delay(3) = target_delay; stretch(3) = target_stretch; //unused GATE_DELAY(4) = MASTER_START; delay(4) = 0 ns; stretch(4) = 200 ns; //////////////////////////////////////////////////////// // SIGNAL I/O // MAP THE LEMO & ECL OUTS LEMO_OUT(1) = master_trig; LEMO_OUT(2) = master_trig; ECL_OUT(1) = si_gate; ECL_OUT(2) = si_gate; ECL_OUT(3) = target_gate; ECL_OUT(4) = target_gate; ECL_OUT(5) = qdc_gate; ECL_OUT(6) = qdc_gate; ECL_OUT(7) = master_trig; ECL_OUT(8) = master_trig; ECL_OUT(9) = pico_a; //ECL_OUT(10) = ; ECL_OUT(11) = pico_b; //ECL_OUT(12) = ; //ECL_OUT(13) = ; //ECL_OUT(14) = ; //ECL_OUT(15) = TRIG_LMU_OUT(1); //ECL_OUT(16) = LMU_OUT(1); /* Generates internal BOS and EOS. / / spill_period_duration = 20000000 us; spill_on_duration = 12000000 us; SECTION(bos_eos_generate) { period(3) = spill_period_duration; GATE_DELAY(3) = PULSER(3); stretch(3) = spill_on_duration; delay(3) = 0 ns; TRIG_PENDING[12] = PULSER(3); GATE_DELAY(4) = GATE_DELAY(3); stretch(4) = 50 ns; delay(4) = 0 ns; restart_mode(4) = TRAILING_EDGE; TRIG_PENDING[13] = GATE_DELAY(4); TRIG_LMU_AUX(3) = GATE_DELAY(3); } / / Listens to BOS and EOS from the accelerator. */ //////////////////////////////////////////////////// // JET ON/OFF TRIGGER SETUP EDGE_GATE_START(1) = jet_on; TRIG_PENDING[12] = jet_on; EDGE_GATE_STOP(1) = jet_off; TRIG_PENDING[13] = jet_off; TRIG_LMU_AUX(4) = EDGE_GATE(1); }
Attachment 2: main.cfg
#log_level = verbose CRATE("Master") { event_max = 1 BARRIER MESYTEC_MADC32(0x00A10000) { nim_busy = gate0 range = 8 V resolution=8 hires=true } BARRIER MESYTEC_MADC32(0x00A20000) { nim_busy = gate0 range = 4 V resolution=8 hires=true } #BARRIER #CAEN_V965 (0x00B10000) { # channel_enable = 0..11 #} BARRIER CAEN_V775 (0x00C10000) { common_start = false time_range = 1200 ns suppress_invalid = true suppress_over_range = true } BARRIER CAEN_V775 (0x00C20000) { common_start = false time_range = 1200 ns suppress_invalid = true suppress_over_range = true } BARRIER #CAEN_V830 (0x00E10000) { # resolution = 32 # } #BARRIER #CAEN_V830 (0x00E20000) { # resolution = 32 #} #BARRIER GROUP("Timetamp") GSI_VULOM(0x05000000) { timestamp = true } }
Attachment 3: r3bfuser.cfg
[r3bfuser] # White Rabbit ID, =0 -> don't write MBS TO timestamp sub-event. # Subevent 10/1: WR subsystem ID + timestamp # wr_id = 0x100 # Save LOS/ROLU scalers/samplers every n:th spill, =0 -> don't read. # Subevent 38/3800: ECL_IN scalers + pileup histogram # Subevent 39/3900: trloii sampler data do_beam_scalers = 1 # Save spill structure with 1/10s sized bins. # do_spill_struct = 10 # Handle spill triggers 10..13 specially, >0 -> keep-alive grace period in s. # period put to ~2 weeks, to enable long-term vulom scalers with targetOFF do_spill_triggers = 1000000 # Save TPAT sub-event for every event # Subevent 36/3600: trlo multi-event TPAT information do_tpat = 1 # Save LMU scalers on spill triggers (10..13). # Subevent 37/3700: lmu scalers (input, before / after DT & after reduction) do_lmu_scalers = 1 # Send beam samplers and LMU scalers via UDP, !="" -> target host. do_udp = "lxg1275.gsi.de"
Attachment 4: setting.1584673412
1584673412 Fri Mar 20 04:03:32 CET 2020 e127pi:mrcc:mscf1:getGainCommon 1 e127pi:mrcc:mscf1:getShapingTimeCommon 1 e127pi:mrcc:mscf1:getThresholdCommon 2 e127pi:mrcc:mscf1:getPzCommon 100 e127pi:mrcc:mscf2:getGainCommon 1 e127pi:mrcc:mscf2:getShapingTimeCommon 1 e127pi:mrcc:mscf2:getThresholdCommon 2 e127pi:mrcc:mscf2:getPzCommon 100 e127pi:mrcc:mscf3:getGainCommon 6 e127pi:mrcc:mscf3:getShapingTimeCommon 3 e127pi:mrcc:mscf3:getThresholdCommon 1 e127pi:mrcc:mscf3:getPzCommon 38 e127pi:mrcc:mscf1:getGain1 4 e127pi:mrcc:mscf1:getGain2 4 e127pi:mrcc:mscf1:getGain3 4 e127pi:mrcc:mscf1:getGain4 4 e127pi:mrcc:mscf1:getShapingTime1 1 e127pi:mrcc:mscf1:getShapingTime2 1 e127pi:mrcc:mscf1:getShapingTime3 1 e127pi:mrcc:mscf1:getShapingTime4 1 e127pi:mrcc:mscf2:getGain1 9 e127pi:mrcc:mscf2:getGain2 4 e127pi:mrcc:mscf2:getGain3 8 e127pi:mrcc:mscf2:getGain4 8 e127pi:mrcc:mscf2:getShapingTime1 2 e127pi:mrcc:mscf2:getShapingTime2 2 e127pi:mrcc:mscf2:getShapingTime3 2 e127pi:mrcc:mscf2:getShapingTime4 2 e127pi:mrcc:mscf3:getGain1 15 e127pi:mrcc:mscf3:getGain2 0 e127pi:mrcc:mscf3:getGain3 15 e127pi:mrcc:mscf3:getGain4 10 e127pi:mrcc:mscf3:getShapingTime1 0 e127pi:mrcc:mscf3:getShapingTime2 0 e127pi:mrcc:mscf3:getShapingTime3 1 e127pi:mrcc:mscf3:getShapingTime4 1 e127pi:mrcc:mscf1:getThreshold1 4 e127pi:mrcc:mscf1:getThreshold2 4 e127pi:mrcc:mscf1:getThreshold3 4 e127pi:mrcc:mscf1:getThreshold4 1 e127pi:mrcc:mscf1:getThreshold5 4 e127pi:mrcc:mscf1:getThreshold6 4 e127pi:mrcc:mscf1:getThreshold7 4 e127pi:mrcc:mscf1:getThreshold8 4 e127pi:mrcc:mscf1:getThreshold9 4 e127pi:mrcc:mscf1:getThreshold10 5 e127pi:mrcc:mscf1:getThreshold11 5 e127pi:mrcc:mscf1:getThreshold12 5 e127pi:mrcc:mscf1:getThreshold13 3 e127pi:mrcc:mscf1:getThreshold14 4 e127pi:mrcc:mscf1:getThreshold15 5 e127pi:mrcc:mscf1:getThreshold16 5 e127pi:mrcc:mscf1:getPz1 128 e127pi:mrcc:mscf1:getPz2 128 e127pi:mrcc:mscf1:getPz3 128 e127pi:mrcc:mscf1:getPz4 128 e127pi:mrcc:mscf1:getPz5 128 e127pi:mrcc:mscf1:getPz6 128 e127pi:mrcc:mscf1:getPz7 128 e127pi:mrcc:mscf1:getPz8 128 e127pi:mrcc:mscf1:getPz9 128 e127pi:mrcc:mscf1:getPz10 128 e127pi:mrcc:mscf1:getPz11 128 e127pi:mrcc:mscf1:getPz12 128 e127pi:mrcc:mscf1:getPz13 128 e127pi:mrcc:mscf1:getPz14 128 e127pi:mrcc:mscf1:getPz15 128 e127pi:mrcc:mscf1:getPz16 128 e127pi:mrcc:mscf2:getThreshold1 255 e127pi:mrcc:mscf2:getThreshold2 255 e127pi:mrcc:mscf2:getThreshold3 0 e127pi:mrcc:mscf2:getThreshold4 255 e127pi:mrcc:mscf2:getThreshold5 255 e127pi:mrcc:mscf2:getThreshold6 255 e127pi:mrcc:mscf2:getThreshold7 255 e127pi:mrcc:mscf2:getThreshold8 255 e127pi:mrcc:mscf2:getThreshold9 255 e127pi:mrcc:mscf2:getThreshold10 255 e127pi:mrcc:mscf2:getThreshold11 0 e127pi:mrcc:mscf2:getThreshold12 255 e127pi:mrcc:mscf2:getThreshold13 255 e127pi:mrcc:mscf2:getThreshold14 255 e127pi:mrcc:mscf2:getThreshold15 0 e127pi:mrcc:mscf2:getThreshold16 255 e127pi:mrcc:mscf2:getPz1 128 e127pi:mrcc:mscf2:getPz2 128 e127pi:mrcc:mscf2:getPz3 87 e127pi:mrcc:mscf2:getPz4 255 e127pi:mrcc:mscf2:getPz5 255 e127pi:mrcc:mscf2:getPz6 255 e127pi:mrcc:mscf2:getPz7 255 e127pi:mrcc:mscf2:getPz8 255 e127pi:mrcc:mscf2:getPz9 255 e127pi:mrcc:mscf2:getPz10 255 e127pi:mrcc:mscf2:getPz11 85 e127pi:mrcc:mscf2:getPz12 255 e127pi:mrcc:mscf2:getPz13 255 e127pi:mrcc:mscf2:getPz14 255 e127pi:mrcc:mscf2:getPz15 85 e127pi:mrcc:mscf2:getPz16 255 e127pi:mrcc:mscf3:getThreshold1 5 e127pi:mrcc:mscf3:getThreshold2 255 e127pi:mrcc:mscf3:getThreshold3 255 e127pi:mrcc:mscf3:getThreshold4 255 e127pi:mrcc:mscf3:getThreshold5 255 e127pi:mrcc:mscf3:getThreshold6 255 e127pi:mrcc:mscf3:getThreshold7 255 e127pi:mrcc:mscf3:getThreshold8 255 e127pi:mrcc:mscf3:getThreshold9 255 e127pi:mrcc:mscf3:getThreshold10 255 e127pi:mrcc:mscf3:getThreshold11 255 e127pi:mrcc:mscf3:getThreshold12 255 e127pi:mrcc:mscf3:getThreshold13 255 e127pi:mrcc:mscf3:getThreshold14 255 e127pi:mrcc:mscf3:getThreshold15 255 e127pi:mrcc:mscf3:getThreshold16 255 e127pi:mrcc:mscf3:getPz1 128 e127pi:mrcc:mscf3:getPz2 128 e127pi:mrcc:mscf3:getPz3 128 e127pi:mrcc:mscf3:getPz4 128 e127pi:mrcc:mscf3:getPz5 128 e127pi:mrcc:mscf3:getPz6 128 e127pi:mrcc:mscf3:getPz7 128 e127pi:mrcc:mscf3:getPz8 128 e127pi:mrcc:mscf3:getPz9 128 e127pi:mrcc:mscf3:getPz10 128 e127pi:mrcc:mscf3:getPz11 128 e127pi:mrcc:mscf3:getPz12 128 e127pi:mrcc:mscf3:getPz13 128 e127pi:mrcc:mscf3:getPz14 128 e127pi:mrcc:mscf3:getPz15 128 e127pi:mrcc:mscf3:getPz16 128 e127pi:mrcc:mscf1:getSingleChMode 0 e127pi:mrcc:mscf2:getSingleChMode 0 e127pi:mrcc:mscf3:getSingleChMode 0 e127pi:mrcc:mscf1:getRcMode 1 e127pi:mrcc:mscf2:getRcMode 1 e127pi:mrcc:mscf3:getRcMode 1 e127pi:mrcc:mscf1:getAutoPZ 0 e127pi:mrcc:mscf2:getAutoPZ 0 e127pi:mrcc:mscf3:getAutoPZ 1 e127pi:mrcc:mscf1:getMultiplicityHi 8 e127pi:mrcc:mscf2:getMultiplicityHi 8 e127pi:mrcc:mscf3:getMultiplicityHi 8 e127pi:mrcc:mscf1:getMultiplicityLo 4 e127pi:mrcc:mscf2:getMultiplicityLo 4 e127pi:mrcc:mscf3:getMultiplicityLo 1 e127pi:mrcc:mscf1:getSumTrgThresh 10 e127pi:mrcc:mscf2:getSumTrgThresh 10 e127pi:mrcc:mscf3:getSumTrgThresh 100 e127pi:mrcc:mscf1:getBlrOn 1 e127pi:mrcc:mscf2:getBlrOn 1 e127pi:mrcc:mscf3:getBlrOn 0 e127pi:mrcc:mscf1:getCoincTime 128 e127pi:mrcc:mscf2:getCoincTime 128 e127pi:mrcc:mscf3:getCoincTime 100 e127pi:mrcc:mscf1:getThreshOffset 100 e127pi:mrcc:mscf2:getThreshOffset 100 e127pi:mrcc:mscf3:getThreshOffset 1 e127pi:mrcc:mscf1:getShaperOffset 100 e127pi:mrcc:mscf2:getShaperOffset 100 e127pi:mrcc:mscf3:getShaperOffset 100 e127pi:mrcc:mscf1:getBlrThresh 25 e127pi:mrcc:mscf2:getBlrThresh 25 e127pi:mrcc:mscf3:getBlrThresh 10 e127pi:mrcc:mscf1:getECLDelay 0 e127pi:mrcc:mscf2:getECLDelay 0 e127pi:mrcc:mscf3:getECLDelay 0
85	Fri Mar 20 16:54:53 2020	Jan	DAQ	BaF OFF downscaled red=32
I introduced a downscaling by a factor of 2^5=32 for the BaF2 during target OFF. The reason is, that we get a lot reasonable x-ray counts (K-alpha, K-REC) outside target ON phase. So i want to minimize our deadtime during target OFF, to be able to use the data efficiently if needed. BaF2 is not really needed in target OFF.
86	Fri Mar 20 16:58:02 2020	Jan	DAQ	Xray2 & Xray3 cabling
We found that Xray2 and Xray3 the cabling is not consistent: 90 degree detector > E_Xray2 for energy > t_Xray3 for times 145 degree detector > E_Xray3 for energy > t_Xray2 for timing 35 degree detector > E_Xray1 > t_Xray1 We can run like this, but should be aware of it!
149	Sat Mar 21 22:57:28 2020	Laszlo, Jan	DAQ	changing cables of the Xray 90 and 145
Energy signals of 90 and 145 degree detector have been checked and exchanged They were connected to the wrong ADC channel. Now E_Xray2 and t_Xray2 should belong to 90 degree E_Xray3 and t_Xray3 belong to 145 degree
250	Mon Mar 23 14:23:01 2020	Pierre-Michel	DAQ	Backup recoil files
Recoil detector files backup to lxg1260:/data.local2/hillenbrand/Laszlo
297	Fri Apr 30 10:55:34 2021	Jan Glorius	DAQ	Xray multi-triggers - blocking gate	2021
From the CFD of Xray1 (90deg) we get multiple trigger signals every ~5sec for unknown reasons. No hint from the preamp signals. The solution now is to have an extended blocking gate active in the trlo-config of node 2. There is now a trigger_stretch of 2500ns for all Xray triggers: trig_stretch(1) = 2500ns; trig_stretch(2) = 2500ns; trig_stretch(3) = 2500ns; This prevents the multiple triggers to reach the lmu (before_dt scalers) However, this will also lead to a very small loss of good signal triggers that overlay within 2.5 us. This has to be taken into account for deadtime determination.
316	Thu May 6 11:03:46 2021	Jan Glorius	DAQ	Cabling Documentation	2021

Attachment 1: e127b_cabling_docu_06_05_2021_.pdf

Attachment 2: e127b_2021_cabling_documentation.xlsx
345	Sun May 16 12:55:48 2021	Jan Glorius	DAQ	event server lxg1299:6003	2021
new event server is set up at lxg1299 on port 6003 It runs as: /data.local1/gstore/mrevserv64 lxg1275
346	Sun May 16 13:31:49 2021	Laszlo	DAQ	Cabling Documentation	2021
Si HV and current was switched in the last documentation.
Attachment 1: e127b_2021_cabling_documentation.xlsx
414	Mon May 24 06:30:42 2021	Ragan	DAQ	NTCAP	2021
NTCAP started for recording Schottky data SC_2021-05-24_06-29-31 \IQ_2021-05-24_06-29-31 Reference level: -30 dBm Carrier frequency: 245 M IQ Rate: 20 MS/s RF attenuation (dB): 40 IF attenuation (dB): 19.9288 masterpath: o:\E143\iq ESR settings: We recorded 3-4 full cycles with 5 stacks. Then we recorded in SC5 manipulation for 10 min and afterwards in SC3 manipulation for 10 min.
574	Thu Jun 24 09:43:01 2021	Jan Glorius	DAQ	Unpacker	2021
The unpacker used for the production runs of E127b is located at /u/litv-exp/unpacker/unpackexps/e127_TO_2021_with_ECL It is also aliased for litv-exp user as: E127_unpack This is for the data structure as documented here: https://elog.gsi.de/esr/E127/346 As of now, this is compiled for ROOT v6-18-04 located here: /cvmfs/csee.gsi.de/root/618-04/bin/root
579	Wed Oct 13 15:15:53 2021	Jan	DAQ	root-file header for analysis	2021
Attached is the header file needed for root analysis.
Attachment 1: e127b.h
// Declaration of leaf types UInt_t TRIGGER; UInt_t EVENTNO; UInt_t Si_HV; UInt_t Si_current; UInt_t PARTICLE_trigger; UInt_t PARTICLE_vulom_timestamp_lo; UInt_t PARTICLE_vulom_timestamp_hi; UInt_t PARTICLE_tpat; UInt_t PARTICLE_WR_timestamp1; UInt_t PARTICLE_WR_timestamp2; UInt_t PARTICLE_WR_timestamp3; UInt_t PARTICLE_WR_timestamp4; UInt_t PARTICLE_mega_clock; UInt_t PARTICLE_trafo; UInt_t PARTICLE_I_cool; UInt_t PARTICLE_U_cool; UInt_t PARTICLE_jet_S1; UInt_t PARTICLE_jet_S2; UInt_t RATE_Si_ON_before_lmu; UInt_t RATE_Si_ON_before_dt; UInt_t RATE_Si_ON_after_dt; UInt_t RATE_Si_ON_after_red; UInt_t RATE_Si_OFF_before_lmu; UInt_t RATE_Si_OFF_before_dt; UInt_t RATE_Si_OFF_after_dt; UInt_t RATE_Si_OFF_after_red; UInt_t RATE_Xray_ON_before_lmu; UInt_t RATE_Xray_ON_before_dt; UInt_t RATE_Xray_ON_after_dt; UInt_t RATE_Xray_ON_after_red; UInt_t RATE_Xray_OFF_before_lmu; UInt_t RATE_Xray_OFF_before_dt; UInt_t RATE_Xray_OFF_after_dt; UInt_t RATE_Xray_OFF_after_red; UInt_t RATE_RAW_Si_X; UInt_t RATE_RAW_Si_Y; UInt_t RATE_RAW_Xray1; UInt_t RATE_RAW_Xray2; UInt_t RATE_RAW_Xray3; UInt_t RATE_RAW_BaF_OR; UInt_t RATE_RAW_SiBaF; UInt_t RATE_SiBaF_ON_before_lmu; UInt_t RATE_SiBaF_ON_before_dt; UInt_t RATE_SiBaF_ON_after_dt; UInt_t RATE_SiBaF_ON_after_red; UInt_t RATE_BaF_OFF_before_lmu; UInt_t RATE_BaF_OFF_before_dt; UInt_t RATE_BaF_OFF_after_dt; UInt_t RATE_BaF_OFF_after_red; UInt_t E_SiY[17]; UInt_t E_SiX[17]; UInt_t t_SiY[17]; UInt_t t_SiX[17]; //~ UInt_t E_SiX1; //~ UInt_t E_SiX2; //~ UInt_t E_SiX3; //~ UInt_t E_SiX4; //~ UInt_t E_SiX5; //~ UInt_t E_SiX6; //~ UInt_t E_SiX7; //~ UInt_t E_SiX8; //~ UInt_t E_SiX9; //~ UInt_t E_SiX10; //~ UInt_t E_SiX11; //~ UInt_t E_SiX12; //~ UInt_t E_SiX13; //~ UInt_t E_SiX14; //~ UInt_t E_SiX15; //~ UInt_t E_SiX16; //~ UInt_t E_SiY1; //~ UInt_t E_SiY2; //~ UInt_t E_SiY3; //~ UInt_t E_SiY4; //~ UInt_t E_SiY5; //~ UInt_t E_SiY6; //~ UInt_t E_SiY7; //~ UInt_t E_SiY8; //~ UInt_t E_SiY9; //~ UInt_t E_SiY10; //~ UInt_t E_SiY11; //~ UInt_t E_SiY12; //~ UInt_t E_SiY13; //~ UInt_t E_SiY14; //~ UInt_t E_SiY15; //~ UInt_t E_SiY16; UInt_t E_BaF1; UInt_t E_BaF2; UInt_t E_BaF3; UInt_t E_BaF4; UInt_t E_BaF5; UInt_t E_BaF6; UInt_t E_xray1; UInt_t E_xray2; UInt_t E_xray3; //~ UInt_t t_SiX1; //~ UInt_t t_SiX2; //~ UInt_t t_SiX3; //~ UInt_t t_SiX4; //~ UInt_t t_SiX5; //~ UInt_t t_SiX6; //~ UInt_t t_SiX7; //~ UInt_t t_SiX8; //~ UInt_t t_SiX9; //~ UInt_t t_SiX10; //~ UInt_t t_SiX11; //~ UInt_t t_SiX12; //~ UInt_t t_SiX13; //~ UInt_t t_SiX14; //~ UInt_t t_SiX15; //~ UInt_t t_SiX16; //~ UInt_t t_SiY1; //~ UInt_t t_SiY2; //~ UInt_t t_SiY3; //~ UInt_t t_SiY4; //~ UInt_t t_SiY5; //~ UInt_t t_SiY6; //~ UInt_t t_SiY7; //~ UInt_t t_SiY8; //~ UInt_t t_SiY9; //~ UInt_t t_SiY10; //~ UInt_t t_SiY11; //~ UInt_t t_SiY12; //~ UInt_t t_SiY13; //~ UInt_t t_SiY14; //~ UInt_t t_SiY15; //~ UInt_t t_SiY16; UInt_t t_BaF_NOdelay1; UInt_t t_BaF_NOdelay2; UInt_t t_BaF_NOdelay3; UInt_t t_BaF_NOdelay4; UInt_t t_BaF_NOdelay5; UInt_t t_BaF_NOdelay6; UInt_t t_BaF_delayA1; UInt_t t_BaF_delayA2; UInt_t t_BaF_delayA3; UInt_t t_BaF_delayA4; UInt_t t_BaF_delayA5; UInt_t t_BaF_delayA6; UInt_t t_BaF_delayB1; UInt_t t_BaF_delayB2; UInt_t t_BaF_delayB3; UInt_t t_BaF_delayB4; UInt_t t_BaF_delayB5; UInt_t t_BaF_delayB6; UInt_t t_xray1; UInt_t t_xray2; UInt_t t_xray3; UInt_t PHOTON_trigger; UInt_t PHOTON_vulom_timestamp_lo; UInt_t PHOTON_vulom_timestamp_hi; UInt_t PHOTON_tpat; UInt_t PHOTON_WR_timestamp1; UInt_t PHOTON_WR_timestamp2; UInt_t PHOTON_WR_timestamp3; UInt_t PHOTON_WR_timestamp4; UInt_t PHOTON_mega_clock; UInt_t PHOTON_trafo; UInt_t PHOTON_I_cool; UInt_t PHOTON_U_cool; UInt_t PHOTON_jet_S1; UInt_t PHOTON_jet_S2; // List of branches TBranch b_TRIGGER; //! TBranch b_EVENTNO; //! TBranch b_Si_HV; //! TBranch b_Si_current; //! TBranch b_PARTICLE_trigger; //! TBranch b_PARTICLE_vulom_timestamp_lo; //! TBranch b_PARTICLE_vulom_timestamp_hi; //! TBranch b_PARTICLE_tpat; //! TBranch b_PARTICLE_WR_timestamp1; //! TBranch b_PARTICLE_WR_timestamp2; //! TBranch b_PARTICLE_WR_timestamp3; //! TBranch b_PARTICLE_WR_timestamp4; //! TBranch b_PARTICLE_mega_clock; //! TBranch b_PARTICLE_trafo; //! TBranch b_PARTICLE_I_cool; //! TBranch b_PARTICLE_U_cool; //! TBranch b_PARTICLE_jet_S1; //! TBranch b_PARTICLE_jet_S2; //! TBranch b_RATE_Si_ON_before_lmu; //! TBranch b_RATE_Si_ON_before_dt; //! TBranch b_RATE_Si_ON_after_dt; //! TBranch b_RATE_Si_ON_after_red; //! TBranch b_RATE_Si_OFF_before_lmu; //! TBranch b_RATE_Si_OFF_before_dt; //! TBranch b_RATE_Si_OFF_after_dt; //! TBranch b_RATE_Si_OFF_after_red; //! TBranch b_RATE_Xray_ON_before_lmu; //! TBranch b_RATE_Xray_ON_before_dt; //! TBranch b_RATE_Xray_ON_after_dt; //! TBranch b_RATE_Xray_ON_after_red; //! TBranch b_RATE_Xray_OFF_before_lmu; //! TBranch b_RATE_Xray_OFF_before_dt; //! TBranch b_RATE_Xray_OFF_after_dt; //! TBranch b_RATE_Xray_OFF_after_red; //! TBranch b_RATE_RAW_Si_X; //! TBranch b_RATE_RAW_Si_Y; //! TBranch b_RATE_RAW_Xray1; //! TBranch b_RATE_RAW_Xray2; //! TBranch b_RATE_RAW_Xray3; //! TBranch b_RATE_RAW_BaF_OR; //! TBranch b_RATE_RAW_SiBaF; //! TBranch b_RATE_SiBaF_ON_before_lmu; //! TBranch b_RATE_SiBaF_ON_before_dt; //! TBranch b_RATE_SiBaF_ON_after_dt; //! TBranch b_RATE_SiBaF_ON_after_red; //! TBranch b_RATE_BaF_OFF_before_lmu; //! TBranch b_RATE_BaF_OFF_before_dt; //! TBranch b_RATE_BaF_OFF_after_dt; //! TBranch b_RATE_BaF_OFF_after_red; //! TBranch b_E_SiY[17]; TBranch b_E_SiX[17]; TBranch b_t_SiY[17]; TBranch b_t_SiX[17]; //~ TBranch b_E_SiX1; //! //~ TBranch b_E_SiX2; //! //~ TBranch b_E_SiX3; //! //~ TBranch b_E_SiX4; //! //~ TBranch b_E_SiX5; //! //~ TBranch b_E_SiX6; //! //~ TBranch b_E_SiX7; //! //~ TBranch b_E_SiX8; //! //~ TBranch b_E_SiX9; //! //~ TBranch b_E_SiX10; //! //~ TBranch b_E_SiX11; //! //~ TBranch b_E_SiX12; //! //~ TBranch b_E_SiX13; //! //~ TBranch b_E_SiX14; //! //~ TBranch b_E_SiX15; //! //~ TBranch b_E_SiX16; //! //~ TBranch b_E_SiY1; //! //~ TBranch b_E_SiY2; //! //~ TBranch b_E_SiY3; //! //~ TBranch b_E_SiY4; //! //~ TBranch b_E_SiY5; //! //~ TBranch b_E_SiY6; //! //~ TBranch b_E_SiY7; //! //~ TBranch b_E_SiY8; //! //~ TBranch b_E_SiY9; //! //~ TBranch b_E_SiY10; //! //~ TBranch b_E_SiY11; //! //~ TBranch b_E_SiY12; //! //~ TBranch b_E_SiY13; //! //~ TBranch b_E_SiY14; //! //~ TBranch b_E_SiY15; //! //~ TBranch b_E_SiY16; //! TBranch b_E_BaF1; //! TBranch b_E_BaF2; //! TBranch b_E_BaF3; //! TBranch b_E_BaF4; //! TBranch b_E_BaF5; //! TBranch b_E_BaF6; //! TBranch b_E_xray1; //! TBranch b_E_xray2; //! TBranch b_E_xray3; //! //~ TBranch b_t_SiX1; //! //~ TBranch b_t_SiX2; //! //~ TBranch b_t_SiX3; //! //~ TBranch b_t_SiX4; //! //~ TBranch b_t_SiX5; //! //~ TBranch b_t_SiX6; //! //~ TBranch b_t_SiX7; //! //~ TBranch b_t_SiX8; //! //~ TBranch b_t_SiX9; //! //~ TBranch b_t_SiX10; //! //~ TBranch b_t_SiX11; //! //~ TBranch b_t_SiX12; //! //~ TBranch b_t_SiX13; //! //~ TBranch b_t_SiX14; //! //~ TBranch b_t_SiX15; //! //~ TBranch b_t_SiX16; //! //~ TBranch b_t_SiY1; //! //~ TBranch b_t_SiY2; //! //~ TBranch b_t_SiY3; //! //~ TBranch b_t_SiY4; //! //~ TBranch b_t_SiY5; //! //~ TBranch b_t_SiY6; //! //~ TBranch b_t_SiY7; //! //~ TBranch b_t_SiY8; //! //~ TBranch b_t_SiY9; //! //~ TBranch b_t_SiY10; //! //~ TBranch b_t_SiY11; //! //~ TBranch b_t_SiY12; //! //~ TBranch b_t_SiY13; //! //~ TBranch b_t_SiY14; //! //~ TBranch b_t_SiY15; //! //~ TBranch b_t_SiY16; //! TBranch b_t_BaF_NOdelay1; //! TBranch b_t_BaF_NOdelay2; //! TBranch b_t_BaF_NOdelay3; //! TBranch b_t_BaF_NOdelay4; //! TBranch b_t_BaF_NOdelay5; //! TBranch b_t_BaF_NOdelay6; //! TBranch b_t_BaF_delayA1; //! TBranch b_t_BaF_delayA2; //! TBranch b_t_BaF_delayA3; //! TBranch b_t_BaF_delayA4; //! TBranch b_t_BaF_delayA5; //! TBranch b_t_BaF_delayA6; //! TBranch b_t_BaF_delayB1; //! TBranch b_t_BaF_delayB2; //! TBranch b_t_BaF_delayB3; //! TBranch b_t_BaF_delayB4; //! TBranch b_t_BaF_delayB5; //! TBranch b_t_BaF_delayB6; //! TBranch b_t_xray1; //! TBranch b_t_xray2; //! TBranch b_t_xray3; //! TBranch b_PHOTON_trigger; //! TBranch b_PHOTON_vulom_timestamp_lo; //! TBranch b_PHOTON_vulom_timestamp_hi; //! TBranch b_PHOTON_tpat; //! TBranch b_PHOTON_WR_timestamp1; //! TBranch b_PHOTON_WR_timestamp2; //! TBranch b_PHOTON_WR_timestamp3; //! TBranch b_PHOTON_WR_timestamp4; //! TBranch b_PHOTON_mega_clock; //! TBranch b_PHOTON_trafo; //! TBranch b_PHOTON_I_cool; //! TBranch b_PHOTON_U_cool; //! TBranch b_PHOTON_jet_S1; //! TBranch *b_PHOTON_jet_S2; //! // Set branch addresses fChain->SetBranchAddress("TRIGGER", &TRIGGER, &b_TRIGGER); fChain->SetBranchAddress("EVENTNO", &EVENTNO, &b_EVENTNO); fChain->SetBranchAddress("Si_HV", &Si_HV, &b_Si_HV); fChain->SetBranchAddress("Si_current", &Si_current, &b_Si_current); fChain->SetBranchAddress("PARTICLE_trigger", &PARTICLE_trigger, &b_PARTICLE_trigger); fChain->SetBranchAddress("PARTICLE_vulom_timestamp_lo", &PARTICLE_vulom_timestamp_lo, &b_PARTICLE_vulom_timestamp_lo); fChain->SetBranchAddress("PARTICLE_vulom_timestamp_hi", &PARTICLE_vulom_timestamp_hi, &b_PARTICLE_vulom_timestamp_hi); fChain->SetBranchAddress("PARTICLE_tpat", &PARTICLE_tpat, &b_PARTICLE_tpat); fChain->SetBranchAddress("PARTICLE_WR_timestamp1", &PARTICLE_WR_timestamp1, &b_PARTICLE_WR_timestamp1); fChain->SetBranchAddress("PARTICLE_WR_timestamp2", &PARTICLE_WR_timestamp2, &b_PARTICLE_WR_timestamp2); fChain->SetBranchAddress("PARTICLE_WR_timestamp3", &PARTICLE_WR_timestamp3, &b_PARTICLE_WR_timestamp3); fChain->SetBranchAddress("PARTICLE_WR_timestamp4", &PARTICLE_WR_timestamp4, &b_PARTICLE_WR_timestamp4); fChain->SetBranchAddress("PARTICLE_mega_clock", &PARTICLE_mega_clock, &b_PARTICLE_mega_clock); fChain->SetBranchAddress("PARTICLE_trafo", &PARTICLE_trafo, &b_PARTICLE_trafo); fChain->SetBranchAddress("PARTICLE_I_cool", &PARTICLE_I_cool, &b_PARTICLE_I_cool); fChain->SetBranchAddress("PARTICLE_U_cool", &PARTICLE_U_cool, &b_PARTICLE_U_cool); fChain->SetBranchAddress("PARTICLE_jet_S1", &PARTICLE_jet_S1, &b_PARTICLE_jet_S1); fChain->SetBranchAddress("PARTICLE_jet_S2", &PARTICLE_jet_S2, &b_PARTICLE_jet_S2); fChain->SetBranchAddress("RATE_Si_ON_before_lmu", &RATE_Si_ON_before_lmu, &b_RATE_Si_ON_before_lmu); fChain->SetBranchAddress("RATE_Si_ON_before_dt", &RATE_Si_ON_before_dt, &b_RATE_Si_ON_before_dt); fChain->SetBranchAddress("RATE_Si_ON_after_dt", &RATE_Si_ON_after_dt, &b_RATE_Si_ON_after_dt); fChain->SetBranchAddress("RATE_Si_ON_after_red", &RATE_Si_ON_after_red, &b_RATE_Si_ON_after_red); fChain->SetBranchAddress("RATE_Si_OFF_before_lmu", &RATE_Si_OFF_before_lmu, &b_RATE_Si_OFF_before_lmu); fChain->SetBranchAddress("RATE_Si_OFF_before_dt", &RATE_Si_OFF_before_dt, &b_RATE_Si_OFF_before_dt); fChain->SetBranchAddress("RATE_Si_OFF_after_dt", &RATE_Si_OFF_after_dt, &b_RATE_Si_OFF_after_dt); fChain->SetBranchAddress("RATE_Si_OFF_after_red", &RATE_Si_OFF_after_red, &b_RATE_Si_OFF_after_red); fChain->SetBranchAddress("RATE_Xray_ON_before_lmu", &RATE_Xray_ON_before_lmu, &b_RATE_Xray_ON_before_lmu); fChain->SetBranchAddress("RATE_Xray_ON_before_dt", &RATE_Xray_ON_before_dt, &b_RATE_Xray_ON_before_dt); fChain->SetBranchAddress("RATE_Xray_ON_after_dt", &RATE_Xray_ON_after_dt, &b_RATE_Xray_ON_after_dt); fChain->SetBranchAddress("RATE_Xray_ON_after_red", &RATE_Xray_ON_after_red, &b_RATE_Xray_ON_after_red); fChain->SetBranchAddress("RATE_Xray_OFF_before_lmu", &RATE_Xray_OFF_before_lmu, &b_RATE_Xray_OFF_before_lmu); fChain->SetBranchAddress("RATE_Xray_OFF_before_dt", &RATE_Xray_OFF_before_dt, &b_RATE_Xray_OFF_before_dt); fChain->SetBranchAddress("RATE_Xray_OFF_after_dt", &RATE_Xray_OFF_after_dt, &b_RATE_Xray_OFF_after_dt); fChain->SetBranchAddress("RATE_Xray_OFF_after_red", &RATE_Xray_OFF_after_red, &b_RATE_Xray_OFF_after_red); fChain->SetBranchAddress("RATE_RAW_Si_X", &RATE_RAW_Si_X, &b_RATE_RAW_Si_X); fChain->SetBranchAddress("RATE_RAW_Si_Y", &RATE_RAW_Si_Y, &b_RATE_RAW_Si_Y); fChain->SetBranchAddress("RATE_RAW_Xray1", &RATE_RAW_Xray1, &b_RATE_RAW_Xray1); fChain->SetBranchAddress("RATE_RAW_Xray2", &RATE_RAW_Xray2, &b_RATE_RAW_Xray2); fChain->SetBranchAddress("RATE_RAW_Xray3", &RATE_RAW_Xray3, &b_RATE_RAW_Xray3); fChain->SetBranchAddress("RATE_RAW_BaF_OR", &RATE_RAW_BaF_OR, &b_RATE_RAW_BaF_OR); fChain->SetBranchAddress("RATE_RAW_SiBaF", &RATE_RAW_SiBaF, &b_RATE_RAW_SiBaF); fChain->SetBranchAddress("RATE_SiBaF_ON_before_lmu", &RATE_SiBaF_ON_before_lmu, &b_RATE_SiBaF_ON_before_lmu); fChain->SetBranchAddress("RATE_SiBaF_ON_before_dt", &RATE_SiBaF_ON_before_dt, &b_RATE_SiBaF_ON_before_dt); fChain->SetBranchAddress("RATE_SiBaF_ON_after_dt", &RATE_SiBaF_ON_after_dt, &b_RATE_SiBaF_ON_after_dt); fChain->SetBranchAddress("RATE_SiBaF_ON_after_red", &RATE_SiBaF_ON_after_red, &b_RATE_SiBaF_ON_after_red); fChain->SetBranchAddress("RATE_BaF_OFF_before_lmu", &RATE_BaF_OFF_before_lmu, &b_RATE_BaF_OFF_before_lmu); fChain->SetBranchAddress("RATE_BaF_OFF_before_dt", &RATE_BaF_OFF_before_dt, &b_RATE_BaF_OFF_before_dt); fChain->SetBranchAddress("RATE_BaF_OFF_after_dt", &RATE_BaF_OFF_after_dt, &b_RATE_BaF_OFF_after_dt); fChain->SetBranchAddress("RATE_BaF_OFF_after_red", &RATE_BaF_OFF_after_red, &b_RATE_BaF_OFF_after_red); for(int a=1;a<17;a++) { fChain->SetBranchAddress(Form("E_SiX%d",a),&E_SiX[a], &b_E_SiX[a]); fChain->SetBranchAddress(Form("E_SiY%d",a),&E_SiY[a], &b_E_SiY[a]); fChain->SetBranchAddress(Form("t_SiX%d",a),&t_SiX[a], &b_t_SiX[a]); fChain->SetBranchAddress(Form("t_SiY%d",a),&t_SiY[a], &b_t_SiY[a]); } //~ fChain->SetBranchAddress("E_SiX1", &E_SiX1, &b_E_SiX1); //~ fChain->SetBranchAddress("E_SiX2", &E_SiX2, &b_E_SiX2); //~ fChain->SetBranchAddress("E_SiX3", &E_SiX3, &b_E_SiX3); //~ fChain->SetBranchAddress("E_SiX4", &E_SiX4, &b_E_SiX4); //~ fChain->SetBranchAddress("E_SiX5", &E_SiX5, &b_E_SiX5); //~ fChain->SetBranchAddress("E_SiX6", &E_SiX6, &b_E_SiX6); //~ fChain->SetBranchAddress("E_SiX7", &E_SiX7, &b_E_SiX7); //~ fChain->SetBranchAddress("E_SiX8", &E_SiX8, &b_E_SiX8); //~ fChain->SetBranchAddress("E_SiX9", &E_SiX9, &b_E_SiX9); //~ fChain->SetBranchAddress("E_SiX10", &E_SiX10, &b_E_SiX10); //~ fChain->SetBranchAddress("E_SiX11", &E_SiX11, &b_E_SiX11); //~ fChain->SetBranchAddress("E_SiX12", &E_SiX12, &b_E_SiX12); //~ fChain->SetBranchAddress("E_SiX13", &E_SiX13, &b_E_SiX13); //~ fChain->SetBranchAddress("E_SiX14", &E_SiX14, &b_E_SiX14); //~ fChain->SetBranchAddress("E_SiX15", &E_SiX15, &b_E_SiX15); //~ fChain->SetBranchAddress("E_SiX16", &E_SiX16, &b_E_SiX16); //~ fChain->SetBranchAddress("E_SiY1", &E_SiY1, &b_E_SiY1); //~ fChain->SetBranchAddress("E_SiY2", &E_SiY2, &b_E_SiY2); //~ fChain->SetBranchAddress("E_SiY3", &E_SiY3, &b_E_SiY3); //~ fChain->SetBranchAddress("E_SiY4", &E_SiY4, &b_E_SiY4); //~ fChain->SetBranchAddress("E_SiY5", &E_SiY5, &b_E_SiY5); //~ fChain->SetBranchAddress("E_SiY6", &E_SiY6, &b_E_SiY6); //~ fChain->SetBranchAddress("E_SiY7", &E_SiY7, &b_E_SiY7); //~ fChain->SetBranchAddress("E_SiY8", &E_SiY8, &b_E_SiY8); //~ fChain->SetBranchAddress("E_SiY9", &E_SiY9, &b_E_SiY9); //~ fChain->SetBranchAddress("E_SiY10", &E_SiY10, &b_E_SiY10); //~ fChain->SetBranchAddress("E_SiY11", &E_SiY11, &b_E_SiY11); //~ fChain->SetBranchAddress("E_SiY12", &E_SiY12, &b_E_SiY12); //~ fChain->SetBranchAddress("E_SiY13", &E_SiY13, &b_E_SiY13); //~ fChain->SetBranchAddress("E_SiY14", &E_SiY14, &b_E_SiY14); //~ fChain->SetBranchAddress("E_SiY15", &E_SiY15, &b_E_SiY15); //~ fChain->SetBranchAddress("E_SiY16", &E_SiY16, &b_E_SiY16); fChain->SetBranchAddress("E_BaF1", &E_BaF1, &b_E_BaF1); fChain->SetBranchAddress("E_BaF2", &E_BaF2, &b_E_BaF2); fChain->SetBranchAddress("E_BaF3", &E_BaF3, &b_E_BaF3); fChain->SetBranchAddress("E_BaF4", &E_BaF4, &b_E_BaF4); fChain->SetBranchAddress("E_BaF5", &E_BaF5, &b_E_BaF5); fChain->SetBranchAddress("E_BaF6", &E_BaF6, &b_E_BaF6); fChain->SetBranchAddress("E_xray1", &E_xray1, &b_E_xray1); fChain->SetBranchAddress("E_xray2", &E_xray2, &b_E_xray2); fChain->SetBranchAddress("E_xray3", &E_xray3, &b_E_xray3); //~ fChain->SetBranchAddress("t_SiX1", &t_SiX1, &b_t_SiX1); //~ fChain->SetBranchAddress("t_SiX2", &t_SiX2, &b_t_SiX2); //~ fChain->SetBranchAddress("t_SiX3", &t_SiX3, &b_t_SiX3); //~ fChain->SetBranchAddress("t_SiX4", &t_SiX4, &b_t_SiX4); //~ fChain->SetBranchAddress("t_SiX5", &t_SiX5, &b_t_SiX5); //~ fChain->SetBranchAddress("t_SiX6", &t_SiX6, &b_t_SiX6); //~ fChain->SetBranchAddress("t_SiX7", &t_SiX7, &b_t_SiX7); //~ fChain->SetBranchAddress("t_SiX8", &t_SiX8, &b_t_SiX8); //~ fChain->SetBranchAddress("t_SiX9", &t_SiX9, &b_t_SiX9); //~ fChain->SetBranchAddress("t_SiX10", &t_SiX10, &b_t_SiX10); //~ fChain->SetBranchAddress("t_SiX11", &t_SiX11, &b_t_SiX11); //~ fChain->SetBranchAddress("t_SiX12", &t_SiX12, &b_t_SiX12); //~ fChain->SetBranchAddress("t_SiX13", &t_SiX13, &b_t_SiX13); //~ fChain->SetBranchAddress("t_SiX14", &t_SiX14, &b_t_SiX14); //~ fChain->SetBranchAddress("t_SiX15", &t_SiX15, &b_t_SiX15); //~ fChain->SetBranchAddress("t_SiX16", &t_SiX16, &b_t_SiX16); //~ fChain->SetBranchAddress("t_SiY1", &t_SiY1, &b_t_SiY1); //~ fChain->SetBranchAddress("t_SiY2", &t_SiY2, &b_t_SiY2); //~ fChain->SetBranchAddress("t_SiY3", &t_SiY3, &b_t_SiY3); //~ fChain->SetBranchAddress("t_SiY4", &t_SiY4, &b_t_SiY4); //~ fChain->SetBranchAddress("t_SiY5", &t_SiY5, &b_t_SiY5); //~ fChain->SetBranchAddress("t_SiY6", &t_SiY6, &b_t_SiY6); //~ fChain->SetBranchAddress("t_SiY7", &t_SiY7, &b_t_SiY7); //~ fChain->SetBranchAddress("t_SiY8", &t_SiY8, &b_t_SiY8); //~ fChain->SetBranchAddress("t_SiY9", &t_SiY9, &b_t_SiY9); //~ fChain->SetBranchAddress("t_SiY10", &t_SiY10, &b_t_SiY10); //~ fChain->SetBranchAddress("t_SiY11", &t_SiY11, &b_t_SiY11); //~ fChain->SetBranchAddress("t_SiY12", &t_SiY12, &b_t_SiY12); //~ fChain->SetBranchAddress("t_SiY13", &t_SiY13, &b_t_SiY13); //~ fChain->SetBranchAddress("t_SiY14", &t_SiY14, &b_t_SiY14); //~ fChain->SetBranchAddress("t_SiY15", &t_SiY15, &b_t_SiY15); //~ fChain->SetBranchAddress("t_SiY16", &t_SiY16, &b_t_SiY16); fChain->SetBranchAddress("t_BaF_NOdelay1", &t_BaF_NOdelay1, &b_t_BaF_NOdelay1); fChain->SetBranchAddress("t_BaF_NOdelay2", &t_BaF_NOdelay2, &b_t_BaF_NOdelay2); fChain->SetBranchAddress("t_BaF_NOdelay3", &t_BaF_NOdelay3, &b_t_BaF_NOdelay3); fChain->SetBranchAddress("t_BaF_NOdelay4", &t_BaF_NOdelay4, &b_t_BaF_NOdelay4); fChain->SetBranchAddress("t_BaF_NOdelay5", &t_BaF_NOdelay5, &b_t_BaF_NOdelay5); fChain->SetBranchAddress("t_BaF_NOdelay6", &t_BaF_NOdelay6, &b_t_BaF_NOdelay6); fChain->SetBranchAddress("t_BaF_delayA1", &t_BaF_delayA1, &b_t_BaF_delayA1); fChain->SetBranchAddress("t_BaF_delayA2", &t_BaF_delayA2, &b_t_BaF_delayA2); fChain->SetBranchAddress("t_BaF_delayA3", &t_BaF_delayA3, &b_t_BaF_delayA3); fChain->SetBranchAddress("t_BaF_delayA4", &t_BaF_delayA4, &b_t_BaF_delayA4); fChain->SetBranchAddress("t_BaF_delayA5", &t_BaF_delayA5, &b_t_BaF_delayA5); fChain->SetBranchAddress("t_BaF_delayA6", &t_BaF_delayA6, &b_t_BaF_delayA6); fChain->SetBranchAddress("t_BaF_delayB1", &t_BaF_delayB1, &b_t_BaF_delayB1); fChain->SetBranchAddress("t_BaF_delayB2", &t_BaF_delayB2, &b_t_BaF_delayB2); fChain->SetBranchAddress("t_BaF_delayB3", &t_BaF_delayB3, &b_t_BaF_delayB3); fChain->SetBranchAddress("t_BaF_delayB4", &t_BaF_delayB4, &b_t_BaF_delayB4); fChain->SetBranchAddress("t_BaF_delayB5", &t_BaF_delayB5, &b_t_BaF_delayB5); fChain->SetBranchAddress("t_BaF_delayB6", &t_BaF_delayB6, &b_t_BaF_delayB6); fChain->SetBranchAddress("t_xray1", &t_xray1, &b_t_xray1); fChain->SetBranchAddress("t_xray2", &t_xray2, &b_t_xray2); fChain->SetBranchAddress("t_xray3", &t_xray3, &b_t_xray3); fChain->SetBranchAddress("PHOTON_trigger", &PHOTON_trigger, &b_PHOTON_trigger); fChain->SetBranchAddress("PHOTON_vulom_timestamp_lo", &PHOTON_vulom_timestamp_lo, &b_PHOTON_vulom_timestamp_lo); fChain->SetBranchAddress("PHOTON_vulom_timestamp_hi", &PHOTON_vulom_timestamp_hi, &b_PHOTON_vulom_timestamp_hi); fChain->SetBranchAddress("PHOTON_tpat", &PHOTON_tpat, &b_PHOTON_tpat); fChain->SetBranchAddress("PHOTON_WR_timestamp1", &PHOTON_WR_timestamp1, &b_PHOTON_WR_timestamp1); fChain->SetBranchAddress("PHOTON_WR_timestamp2", &PHOTON_WR_timestamp2, &b_PHOTON_WR_timestamp2); fChain->SetBranchAddress("PHOTON_WR_timestamp3", &PHOTON_WR_timestamp3, &b_PHOTON_WR_timestamp3); fChain->SetBranchAddress("PHOTON_WR_timestamp4", &PHOTON_WR_timestamp4, &b_PHOTON_WR_timestamp4); fChain->SetBranchAddress("PHOTON_mega_clock", &PHOTON_mega_clock, &b_PHOTON_mega_clock); fChain->SetBranchAddress("PHOTON_trafo", &PHOTON_trafo, &b_PHOTON_trafo); fChain->SetBranchAddress("PHOTON_I_cool", &PHOTON_I_cool, &b_PHOTON_I_cool); fChain->SetBranchAddress("PHOTON_U_cool", &PHOTON_U_cool, &b_PHOTON_U_cool); fChain->SetBranchAddress("PHOTON_jet_S1", &PHOTON_jet_S1, &b_PHOTON_jet_S1); fChain->SetBranchAddress("PHOTON_jet_S2", &PHOTON_jet_S2, &b_PHOTON_jet_S2);
1	Thu Sep 13 11:42:33 2018	Jan Glorius	Collaboration	Proposal
Attached is the beam time proposal submitted and accepted by the G-PAC in 2017.
Attachment 1: E127_Reifarth_pg.pdf

Attachment 2: E127_Approval.pdf

578	Wed Oct 13 15:09:04 2021	Jan	Collaboration	K-REC cross sections A. Surzhykov	2021
Attached are the theory K-REC cross sections as calculated by Andrey Surzhykov (August 2021). They are done for 118Te52+ on H2 at 7.049 and 6.042 MeV/u as well as for 124Xe54+ on H2 at 7.049 MeV/u. first column - photon angle (deg), second column - cross section (barn/sr). The results are given already in the laboratory frame. Comment of Andrey on uncertainty: Important question about theoretical model and, hence, accuracy of calculations. I used slightly improved "impulse approximation" that takes into account momentum and energy distribution of target electron (in initial state). By playing with the models for the Compton profile of target electron, I estimate the accuracy of calculations as 1 %. To be fair, it is rather conservative estimate. I suspect that for large emission angle (around 90 deg) accuracy is even better. But let us stay with 1 %.
Attachment 1: DCS_Z_52_Tp_7.049MeV_NEW.dat
K-REC angle-differential cross section (barn/sr) in the laboratory frame Charge of the projectile ion Z = 52 Charge of the target atom Zt = 1 Projectile energy Tp = 7.04900000000000000000000000000 MeV/u Maximum number of partial waves used = 8 0. 0.9517827043684732 1. 1.0066452310231193 2. 1.1711617126669283 3. 1.4451189567110523 4. 1.828161983217117 5. 2.319794535777521 6. 2.919379795380727 7. 3.6261412958994796 8. 4.4391640394603895 9. 5.357395809574483 10. 6.379648679541435 11. 7.50460071327827 12. 8.730797855372112 13. 10.056656006812414 14. 11.480463282529886 15. 13.000382446547578 16. 14.61445352024514 17. 16.320596558942785 18. 18.116614591734237 19. 20.00019671923322 20. 21.968921363650026 21. 24.02025966538133 22. 26.15157902008221 23. 28.3601467499869 24. 30.643133903065568 25. 32.99761917343486 26. 35.42059293629655 27. 37.90896139054262 28. 40.4595508020561 29.000000000000004 43.069111840638186 30. 45.73432400341395 31. 48.45180011750791 32. 51.218090914733224 33. 54.0296896710139 34. 56.883036903242385 35. 59.77452511628241 36. 62.70050359284277 37. 65.65728321898483 38. 68.64114133807054 39.00000000000001 71.64832662602382 40. 74.6750639808498 41. 77.71755941944612 42. 80.7720049748392 43.00000000000001 83.83458358708674 44. 86.90147398121269 45. 89.96885552566536 46. 93.03291306493358 47.00000000000001 96.08984172009822 48. 99.13585165125326 49. 102.16717277588967 50. 105.18005943750022 51. 108.17079501883593 52. 111.13569649441845 53. 114.07111891708914 54. 116.97345983355952 55.00000000000001 119.83916362410676 56. 122.66472576174371 57. 125.44669698637684 58.00000000000001 128.1816873896506 59. 130.86637040635904 60. 133.49748670849502 61. 136.07184799817944 62. 138.58634069590647 63.00000000000001 141.03792952070884 64. 143.42366095903168 65.00000000000001 145.74066661927378 66. 147.98616646912959 67.00000000000001 150.15747195303302 68. 152.25198898717235 69.00000000000001 154.2672208297082 70. 156.20077082398603 71. 158.05034501269628 72. 159.81375462108485 73.00000000000001 161.4889184074721 74. 163.0738648794857 75.00000000000001 164.56673437455828 76. 165.9657810033841 77. 167.26937445516904 78.00000000000001 168.47600166364478 79. 169.58426833295331 80. 170.5929003226392 81. 171.5007448911178 82. 172.30677179711333 83.00000000000001 173.01007425868588 84. 173.6098697695902 85. 174.105500772829 86.00000000000001 174.49643519138178 87. 174.78226681620885 88. 174.9627155517448 89.00000000000001 175.03762751920837 90. 175.00697501817163 91. 174.87085634693935 92. 174.62949548240172 93.00000000000001 174.28324162013348 94.00000000000001 173.83256857561886 95. 173.2780740475935 96. 172.62047874459836 97. 171.8606253759504 98. 170.99947750844117 99.00000000000001 170.03811829018065 100. 168.97774904311123 101. 167.8196877258231 102. 166.56536726840946 103. 165.21633378120697 104. 163.77424463937433 105.00000000000001 162.24086644536905 106. 160.61807287148952 107. 158.90784238475976 108. 157.11225585653915 109. 155.23349405934877 110.00000000000001 153.27383505351617 111. 151.23565146634337 112. 149.1214076666166 113. 146.933656837378 114. 144.67503794999067 114.99999999999999 142.34827264263237 116.00000000000001 139.95616200645725 117. 137.5015832827731 118. 134.98748647467863 119. 132.4168908767123 120. 129.79288152615837 121.00000000000001 127.11860557975686 122. 124.39726861965754 123.00000000000001 121.63213089254982 124. 118.82650348599213 125. 115.98374444604976 126.00000000000001 113.10725484043212 127.00000000000003 110.20047477140473 128. 107.26687934282026 129. 104.30997458569307 130.00000000000003 101.33329334680292 131. 98.34039114488067 132. 95.33484199898601 133. 92.32023423374181 134.00000000000003 89.30016626613966 135. 86.27824237867115 136. 83.25806848358295 137. 80.24324788308304 138.00000000000003 77.23737703035452 139. 74.24404129625275 140. 71.26681074658053 141. 68.30923593484178 142. 65.37484371538308 143. 62.46713308182212 144. 59.589571035660434 145.00000000000003 56.74558848996043 146.00000000000003 53.938576212942536 147. 51.171880816333314 148. 48.448800793261626 149. 45.77258261045728 150.00000000000003 43.14641685945814 151. 40.57343447148395 152. 38.056703000566955 153. 35.599222979470866 154. 33.20392435284915 155. 30.87366299202191 156.00000000000003 28.611217295658832 157. 26.419284880566885 158. 24.30047936668375 159. 22.257327260271655 160. 20.2922649391984 161.00000000000003 18.407635744074394 162. 16.605687178895447 163. 14.888568224708305 164. 13.258326769689953 165. 11.716907158887912 166.00000000000003 10.266147866726094 166.99999999999997 8.907779295234612 168. 7.64342170080646 169. 6.474583252126237 170. 5.402658221753238 171. 4.428925313677599 172.00000000000003 3.554546128993118 173. 2.7805637716616936 174. 2.1079015961596985 175.00000000000003 1.537362098626752 176. 1.0696259529418157 176.99999999999997 0.7052511929759611 178.00000000000003 0.4446725420776998 179. 0.28820089065853977 180. 0.23602292255652846
Attachment 2: DCS_Z_54_Tp_7.049MeV_NEW.dat
K-REC angle-differential cross section (barn/sr) in the laboratory frame Charge of the projectile ion Z = 54 Charge of the target atom Zt = 1 Projectile energy Tp = 7.04900000000000000000000000000 MeV/u Maximum number of partial waves used = 8 0. 1.2188177109258354 1. 1.278471868213512 2. 1.4573561826377746 3. 1.755236297068105 4. 2.1717220000099693 5. 2.7062678003870118 6. 3.358173730633336 7. 4.126586376498984 8. 5.010500131527964 9. 6.008758673724422 10. 7.1200566614941385 11. 8.342941645525626 12. 9.675816192866327 13. 11.116940219048102 14. 12.664433523735411 15. 14.316278524996479 16. 16.07032318694543 17. 17.924284135163226 18. 19.87574995398717 19. 21.922184659453773 20. 24.060931341397055 21. 26.289215967938564 22. 28.60415134536191 23. 31.002741226136834 24. 33.48188455765655 25. 36.03837986406335 26. 38.66892975337887 27. 41.370145542007556 28. 44.1385519885634 29.000000000000004 46.970592128866635 30. 49.862632203875606 31. 52.81096667226053 32. 55.81182329928007 33. 58.86136831360672 34. 61.95571162373897 35. 65.09091208565872 36. 68.2629828134243 37. 71.46789652444522 38. 74.70159091125002 39.00000000000001 77.95997403164789 40. 81.238929709283 41. 84.53432293669857 42. 87.84200527315627 43.00000000000001 91.15782022959816 44. 94.4776086332971 45. 97.79721396490213 46. 101.11248766076663 47.00000000000001 104.41929437362921 48. 107.71351718491171 49. 110.99106276210144 50. 114.24786645488871 51. 117.47989732394566 52. 120.68316309644969 53. 123.85371504267135 54. 126.98765276817493 55.00000000000001 130.0811289163991 56. 133.1303537766143 57. 136.13159979247695 58.00000000000001 139.08120596662616 59. 141.9755821569921 60. 144.81121326070925 61. 147.58466328174143 62. 150.2925792785512 63.00000000000001 152.93169518835086 64. 155.4988355246892 65.00000000000001 157.9909189453289 66. 160.40496168757622 67.00000000000001 162.73808086841885 68. 164.98749764702174 69.00000000000001 167.15054024732217 70. 169.22464683864368 71. 171.20736827243576 72. 173.09637067341214 73.00000000000001 174.8894378835396 74. 176.58447375748733 75.00000000000001 178.17950430831337 76. 179.67267970231893 77. 181.06227610215524 78.00000000000001 182.34669735741542 79. 183.52447654208868 80. 184.5942773383957 81. 185.5548952666606 82. 186.4052587610087 83.00000000000001 187.14443009080932 84. 187.77160612791133 85. 188.28611895984264 86.00000000000001 188.687436349266 87. 188.97516204010392 88. 189.14903591086127 89.00000000000001 189.20893397578686 90. 189.15486823463294 91. 188.98698637187567 92. 188.70557130637232 93.00000000000001 188.3110405925406 94.00000000000001 187.80394567424474 95. 187.18497099268782 96. 186.45493294970518 97. 185.61477872796422 98. 184.66558496967582 99.00000000000001 183.6085563155263 100. 182.44502380564055 101. 181.17644314449237 102. 179.80439283177637 103. 178.33057216136146 104. 176.7567990905477 105.00000000000001 175.085007981952 106. 173.31724722044834 107. 171.4556767076973 108. 169.50256523689734 109. 167.46028775049814 110.00000000000001 165.33132248371973 111. 163.11824799682356 112. 160.82374009918797 113. 158.4505686683433 114. 156.0015943672253 114.99999999999999 153.47976526301093 116.00000000000001 150.88811335099805 117. 148.22975098710003 118. 145.5078672326172 119. 142.725724115057 120. 139.8866528088619 121.00000000000001 136.99404974000825 122. 134.05137261852877 123.00000000000001 131.06213640310358 124. 128.0299092019544 125. 124.95830811436285 126.00000000000001 121.85099501721349 127.00000000000003 118.7116723010482 128. 115.54407856018597 129. 112.35198424154208 130.00000000000003 109.13918725684333 131. 105.90950856300094 132. 102.66678771546286 133. 99.41487839941789 134.00000000000003 96.15764394377857 135. 92.8989528229059 136. 89.64267415108442 137. 86.3926731747853 138.00000000000003 83.15280676778272 139. 79.92691893420937 140. 76.71883632465385 141. 73.53236377040916 142. 70.37127984098917 143. 67.23933243001787 144. 64.14023437459531 145.00000000000003 61.077659113223454 146.00000000000003 58.05523638735112 147. 55.07654799156941 148. 52.14512357745419 149. 49.26443651600691 150.00000000000003 46.43789982359462 151. 43.66886215623952 152. 40.960603877038 153. 38.31633320142653 154. 35.739182424929524 155. 33.23220423794769 156.00000000000003 30.798368132051035 157. 28.44055690214702 158. 26.16156324879374 159. 23.964086484816164 160. 21.850729350271603 161.00000000000003 19.823994939687914 162. 17.88628374537359 163. 16.03989082046073 164. 14.287003065211067 165. 12.629696639965104 166.00000000000003 11.069934507966204 166.99999999999997 9.609564111139262 168. 8.250315181741737 169. 6.993797692640494 170. 5.841499948798817 171. 4.794786822387042 172.00000000000003 3.8548981337485957 173. 3.022947180277144 174. 2.299919415068962 175.00000000000003 1.6866712770370351 176. 1.1839291739707618 176.99999999999997 0.7922886198415147 178.00000000000003 0.5122135274536522 179. 0.34403565734385344 180. 0.28795422363490114
Attachment 3: DCS_Z_52_Tp_6.042MeV_NEW.dat
K-REC angle-differential cross section (barn/sr) in the laboratory frame Charge of the projectile ion Z = 52 Charge of the target atom Zt = 1 Projectile energy Tp = 6.04200000000000000000000000000 MeV/u Maximum number of partial waves used = 8 0. 1.1059830488249303 1. 1.1705845094490612 2. 1.3643054217865629 3. 1.6868954962204896 4. 2.1379379797930675 5. 2.716850250037873 6. 3.422884644800823 7. 4.255129526509179 8. 5.212510578921611 9. 6.293792333960063 10. 7.497579925812086 11. 8.82232106907979 12. 10.266308257353163 13. 11.827681178195974 14. 13.504429340155628 15. 15.294394907046415 16. 17.195275734402518 17. 19.20462860266338 18. 21.3198726413356 19. 23.538292938067528 20. 25.85704432629026 21. 28.27315534480606 22. 30.783532362453606 23. 33.38496386074608 24. 36.074124867163256 25. 38.8475815315786 26. 41.70179583812944 27. 44.633130444674165 28. 47.63785364184573 29.000000000000004 50.71214442358309 30. 53.8520976609279 31. 57.05372937078462 32. 60.31298207127901 33. 63.62573021530726 34. 66.98778569383447 35. 70.39490340049566 36. 73.84278684905499 37. 77.32709383530768 38. 80.84344213504548 39.00000000000001 84.38741522976329 40. 87.95456805185732 41. 91.54043274114993 42. 95.14052440467529 43.00000000000001 98.7503468717754 44. 102.36539843667731 45. 105.9811775808656 46. 109.59318866770427 47.00000000000001 113.19694760192732 48. 116.78798744678073 49. 120.3618639917743 50. 123.91416126418622 51. 127.44049697765236 52. 130.9365279113667 53. 134.39795521362424 54. 137.82052962363557 55.00000000000001 141.20005660575865 56. 144.53240139049885 57. 147.81349391684333 58.00000000000001 151.03933367071133 59. 154.20599441451554 60. 157.3096288030467 61. 160.346472881107 62. 163.31285045853312 63.00000000000001 166.20517735846312 64. 169.01996553490915 65.00000000000001 171.75382705591198 66. 174.40347794875575 67.00000000000001 176.96574190392633 68. 179.4375538346996 69.00000000000001 181.81596328944116 70. 184.09813771389628 71. 186.28136556093855 72. 188.36305924543606 73.00000000000001 190.34075794207644 74. 192.21213022417638 75.00000000000001 193.97497654167643 76. 195.6272315367003 77. 197.166966195225 78.00000000000001 198.5923898335825 79. 199.9018519186718 80. 201.09384372092964 81. 202.16699979926182 82. 203.1200993172981 83.00000000000001 203.95206719048417 84. 204.66197506367757 85. 205.24904211906352 86.00000000000001 205.71263571435173 87. 206.05227185136252 88. 206.2676154752499 89.00000000000001 206.3584806047541 90. 206.32483029401018 91. 206.16677642658257 92. 205.88457934252642 93.00000000000001 205.4786472994136 94.00000000000001 204.94953576839728 95. 204.29794656651484 96. 203.52472682657006 97. 202.63086780605636 98. 201.61750353672136 99.00000000000001 200.48590931649807 100. 199.23750004565898 101. 197.8738284091762 102. 196.39658290740232 103. 194.80758573731097 104. 193.10879052666732 105.00000000000001 191.3022799236243 106. 189.3902630443666 107. 187.3750727815542 108. 185.25916297644346 109. 183.0451054576862 110.00000000000001 180.7355869499388 111. 178.33340585553586 112. 175.8414689126046 113. 173.26278773312825 114. 170.6004752245808 114.99999999999999 167.8577418988831 116.00000000000001 165.03789207254906 117. 162.1443199620105 118. 159.18050567822488 119. 156.15001112478888 120. 153.05647580389206 121.00000000000001 149.903612534556 122. 146.6952030877137 123.00000000000001 143.43509374278906 124. 140.12719077053893 125. 136.77545584701824 126.00000000000001 133.38390140362577 127.00000000000003 129.95658591827743 128. 126.49760915284291 129. 123.01110734206114 130.00000000000003 119.50124833923267 131. 115.97222672405493 132. 112.42825887803583 133. 108.87357803298467 134.00000000000003 105.31242929813425 135. 101.74906467149661 136. 98.18773804110306 137. 94.6327001818155 138.00000000000003 91.0881937534257 139. 87.55844830578583 140. 84.04767529673249 141. 80.56006312857376 142. 77.09977220891855 143. 73.67093004161656 144. 70.27762635357502 145.00000000000003 66.92390826319266 146.00000000000003 63.61377549613141 147. 60.35117565411021 148. 57.1399995423664 149. 53.98407656138078 150.00000000000003 50.887170168406506 151. 47.85297341428077 152. 44.885104560922656 153. 41.987102784848155 154. 39.16242397193823 155. 36.41443660861304 156.00000000000003 33.74641777445342 157. 31.161549241208746 158. 28.662913683012476 159. 26.253491002502525 160. 23.93615477741538 161.00000000000003 21.71366883208299 162. 19.588683938120205 163. 17.563734648437823 164. 15.641236268561688 165. 13.823481969071878 166.00000000000003 12.112640042808831 166.99999999999997 10.510751310318 168. 9.01972667682475 169. 7.641344843839871 170. 6.377250178315511 171. 5.2289507420627155 172.00000000000003 4.197816483953261 173. 3.285077597214939 174. 2.491823043926343 175.00000000000003 1.8189992486040147 176. 1.2674089625583536 176.99999999999997 0.83771030048009 178.00000000000003 0.530415950493647 179. 0.3458925586976838 180. 0.28436028898352445
41	Sun Mar 15 09:42:40 2020	Jan	Calibration	run030 - Xray90 calib Am241
measurement with old tennelec specAmps, do not use for efficiency! Detector: 90 Source: Am-241 Distance: 167.5mm Start time: 13:06:55 15.03.2020 Stop time: 13:24:57 15.03.2020 file name: run030_xxxx.lmd avrg. rate: 650Hz dead-time: 7%
42	Sun Mar 15 13:08:38 2020	Jan	Calibration	run031 - Xray90 calib Ba133 hi-rate
measurement with old tennelec specAmps, do not use for efficiency! Detector: 90 Source: Ba-133 strong source Distance: 167.5mm Start time: 13:28:42 15.03.2020 Stop time:13:38:16 15.03.2020 file name: run031_xxxx.lmd avrg. rate: 2.7kHz dead-time: 25%
43	Sun Mar 15 13:40:11 2020	Jan	Calibration	run032 - Xray90 calib Ba133
measurement with old tennelec specAmps, do not use for efficiency! Detector: 90 Source: Ba-133 weak source Distance: 167.5mm Start time: 13:39:30 15.03.2020 Stop time: 13:50:55 15.03.2020 file name: run032_xxxx.lmd avrg. rate: 150Hz dead-time: 1.5%
44	Sun Mar 15 13:52:05 2020	Jan	Calibration	run033 - Xray145 calib Am241
measurement with old tennelec specAmps, do not use for efficiency! Detector: 145 Source: Am-241 Distance: 305mm Start time: 14:15;56 15.03.2020 Stop time: 14:40:21 15.03.2020 file name: run033_xxxx.lmd avrg. rate: 300Hz dead-time: 4%
45	Sun Mar 15 14:41:34 2020	Jan	Calibration	run034 - Xray145 calib B133 high rate -SOURCE MOVED!
measurement with old tennelec specAmps, do not use for efficiency! The source moved during the calibration, measurement stopped at half time. Detector: 145 Source: B133 high rate Distance: 305mm Start time: 14:54:47 15.03.2020 Stop time: 15:06:53 15.03.2020 file name: run034_xxxx.lmd avrg. rate: 1kHz dead-time: 11%
46	Sun Mar 15 15:08:44 2020	Jan	Calibration	run035 - Xray145 calib B133 high rate
measurement with old tennelec specAmps, do not use for efficiency! Detector: 145 Source: B133 high rate Distance: 305mm Start time: 15:10:15 15.03.2020 Stop time: 15:31:16 15.03.2020 file name: run035_xxxx.lmd avrg. rate: 1kHz dead-time: 12%

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