AIDA GELINA BRIKEN nToF CRIB ISOLDE CIRCE nTOFCapture DESPEC DTAS EDI_PSA 179Ta CARME StellarModelling DCF K40
  BRIKEN, Page 3 of 21  ELOG logo
  ID Date Authordown Subject
  353   Fri Oct 27 10:04:31 2017 SG, RYLISE++ file for BRIKEN1
Here attached the lise file for BRIKEN1
Attachment 1: Cu82_Be5mm_Brho7.7000Tm_F1deg8mm_F5deg8mm_F7_D80mod_F11
Version 10.0.27

{============================= Main Part ======================================}
[general]
                    File = C:\users\sgo\Desktop\Cu82_Be5mm_Brho7.7000Tm_F1deg8mm_F5deg8mm_F7_D80mod_F11
                    Date = 27-10-2017
                    Time = 17:57:52
           Configuration = C:\Users\inabe\Desktop\laa.lcn
             Optionsfile = A1900_2006.lopt
                   Title = BigRIPS Standard + ZDS Large Acceptance Achromatic mode
          BlockStructure = DSSAWMSMDSAMMMMMASMMMMMMMMDMDMMAWSMMDMDMMMMMASMMMMMASMMMAMMDSMMMSSMMMDMMSMMAMMMMMMMMMMSMMMMMMMMSMMM

[settings]
                   A,Z,Q = 238U 86+                              ; Mass ElementName Charge+ Beam
                  Energy = 345                  MeV/u            
               Intensity = 50                   pnA              ; enA,pna,pps,kW
            RF frequency = 20                   MHz              
            Bunch length = 1                    ns               
         Settings on A,Z = 82Cu                                  ; Mass ElementName Charge+ Beam

[OpticsBeam]
                      BX = 0.5                  (±)mm            ; one-half the horisontal beam extent (x)
                      BT = 5                    (±)mrad          ; one-half the horisontal beam divergence(x')
                      BY = 0.5                  (±)mm            ; one-half the vertical beam extent (y)
                      BF = 5                    (±)mrad          ; one-half the vertical beam divergence (y')
                      BL = 30                   (±)mm            
                      BD = 0.1                  (±)%             ; one-half of the momentum spread (dp/p)
                  ShiftX = 0                    mm               ; beam respect to the spectrometer axis
                  AngleX = 0                    mrad             ; beam respect to the spectrometer axis
                  ShiftY = 0                    mm               ; beam respect to the spectrometer axis
                  AngleY = 0                    mrad             ; beam respect to the spectrometer axis
            Scheme Angle = 60                   degrees          
                  ShapeX = 1
                  ShapeT = 1
                  ShapeY = 1
                  ShapeF = 1
                  ShapeL = 1
                  ShapeD = 1
               OptBeam_X = 1                    (±)mm            
               OptBeam_T = 30                   (±)mrad          
               OptBeam_Y = 1                    (±)mm            
               OptBeam_F = 30                   (±)mrad          
               OptBeam_L = 0                    (±)mm            
               OptBeam_D = 1.5                  (±)%             

[SlitsBeforeTarget]
                   Shape = 1                                     ; 0-slits, 1-ellipse
           ApertureShape = 1                                     ; 0-slits, 1-ellipse
                X_action = 0,0,0                                 ; Use 1/0, Show 1/0, UseApp 1/0
                  X_size = 1,-2.00,-50.0,2.00,50.0               ; joint,Left,L-limit,Right,R-limit
                Y_action = 0,0,0                                 ; Use 1/0, Show 1/0, UseApp 1/0
                  Y_size = 1,-2.00,-50.0,2.00,50.0               ; joint,Bottom,B-limit,Top,T-limit

[options]
               NP simple = 32                                    ; Number of points in distribution
        NP charge states = 32                                    ; Number of points in distribution
                NP wedge = 32                                    ; Number of points in distribution
           Charge states = Yes                                   ; No  & Yes
           CutEdgeEffect = 1                                     ; 1-Yes. Default, 0-no - for extended configurations
       Prim.beam scatter = 0                                     ; 0-without, 1-with
              Delta peak = 0                                     ; 0-without, 1-with
             BrhoMeanMax = 0                                     ; 0-Max, 1-Mean
            BrhoMeMaLeRi = 3                                     ; 0-Max, 1-Mean, 2-Left, 3-Right /for fission/

[target]
         Target contents = 0,4,1,9.012                           ; Nomer,Z,Atoms,Mass
        Target thickness = 4,5,1.848,0,0                         ; State,Thickness,density,angle,SolidGas
  Target fusion compound = 0
   Targ use for Q-states = 1
           Target Defect = 1,0                                   ; [0] choice - % or micron at 0 degree,  [1]=value; 
       Degrader contents = 0,6,1,12.011                          ; Nomer,Z,Atoms,Mass
      Degrader thickness = 0,0,2.26,0,0                          ; State,Thickness,density,angle,SolidGas
  Degra use for Q-states = 1
         Degrader Defect = 1,0                                   ; [0] choice - % or micron at 0 degree,  [1]=value; 

[mechanism]
                Reaction = 6                                     ; 0 - fragm, 1 - fusion-resid, 2 - fusion-fission
               CalcOther = 112                                   ; calculate other reactions
           V calculation = 3                                     ; 0 - constant, 1 - Borrel, 2 - Rami, 3-convolution, 4-two body reaction
             V_opt/Vbeam = 1                                     ; default 1
         Velocity_exceed = 1                                     ; 0 - without, 1-with - two-body recations velocity corrections
Binding Energy for Vf/Vp = 8                    MeV              ; Binding energy for Borrel's expression
    Shift for Vf/Vp calc = 0     
        Prefragment_Rami = 1                                     ; 1-Yes, 0-No
                  Sigma0 = 90                   MeV/c            ; default 90
                  SigmaD = 200                  MeV/c            ; default 200
                  SigmaM = 87                   MeV/c            ; default 87
               Asymmetry = 0                    %                ; default 0
          Method v-sigma = 3                                     ; 0 - Goldhaber, 1-Morrissey,2-Friedman,3-Convolution
               G_Surface = 0.95                 MeV/fm^2         
 Symmetry around half_Ab = 1                                     ; 1 - yes, 0-no
 Pfaff pickup correction = 1                                     ; 1 - yes, 0-no
     ChargeExchangePfaff = 1                                     ; 1 - exclude, 0-forget
            Sigma corr 0 = 0                                     ; Coulomb energy
            Sigma corr 1 = 0                                     ; Projectile mass
           Friedman mode = 2                                     ; 0-Qgg, 1-Surface, 2-Qgg+Surface
         Prefragment_Fri = 1                                     ; 1-Yes, 0-No
        Coulomb_Friedman = 1                                     ; 1-Yes, 0-No
                  K_Morr = 8                    MeV/A            ; E/A=8MeV/A default; D.Morrissey coef.
               K_MorHalf = 8                    MeV/A            ; E/A=8MeV/A default at Afrag=Aproj/2; D.Morrissey coef.
                 AA_fast = 0                                     ; 1-Yes, 0-No
            BarrierShape = 1                                     ; 0-classical, 1-quantum mech.
                 H_omega = 5                    MeV              ; default 3
           Probabilty_CN = 1                                     ; 0/1 use Prbabilty for CN formation
            UseVanishing = 1                                     ; 1-Yes, 0-No
              VanishMode = 0                                     ; 0-Sierk, 1-Cohen
           NuclPotential = 1                                     ; 0-Bass, 1-WS
                   WS_V0 = 105                  MeV              
                   WS_R0 = 1.12                 fm               
                    WS_a = 0.75                 fm               
          FusDiffuseness = 1    
              Width Coef = 1                                     ; default 1; for Leon's charge state distribution
          gZt Correction = 1                                     ; default 1;      Leon's C.S.D.
           PowerCoefLeon = 0.477                                 ; default 0.477; Leon's C.S.D.
           Cross section = File                                  ; Fit  & File
           Charge method = 3                                     ; charge calculations method  0-5
      EPAX Cross Section = 4                                     ; cross section calculations method 0-4
        SR Cross Section = 2                                     ; EPAX for SR  0-2
             Energy Loss = 2                                     ; energy loss calculation method 0-3
     Anglular straggling = 1                                     ; 0-LISE, 1-ATIMA
         StragglingCoef1 = 0.217
         StragglingCoef2 = 1.12 
       Energy straggling = 1                                     ; 0-LISE, 1-ATIMA
       EnergyStragMethod = 0                                     ; 0-integrate, 1-table
        EnergyStragShape = 0                                     ; 0-Gauss, 1-Landau-Vavilov
          EquilThickness = 1                                     ; 0-Charge, 1-Global
              MassMethod = 0                                     ; 0-DB+calcul, 1 + just calcul
            MassDataBase = 0                                     ; 0-A&W, 1-User ME
            Mass formula = 2                                     ; 0-LDM, 1-Myerer, 2: 1+corrections
      UseChargeForEnergy = 2                                     ; 0-No, 1-Yes, 2-Auto
         EnergyValueAuto = 30                                    ; default value 30 MeV/u
         EquilibriumMode = 0                                     ; 0-Equil, 1-NonEquil
               UB_Global = 70                                    ; default 70 MeV/u
             MinZ_Global = 2                                     ; default Z>=29
        ChargeStateOptim = 1                                     ; 0-No, 1-Yes
         ZmQ_AfterReactn = 0                                     ; default 0 (full stripped)
             EPAX_p_Norm = 1
               EPAX_p_Un = 1.65
              EPAX_p_Up0 = 1.79
              EPAX_p_Up1 = 0.00472
              EPAX_p_Up2 = -1.3e-5 
                EPAX_p_H = 1

[fission]
         FisAngDistShape = 0                                     ; 0-isotropic; 1-anisotropic
     FisMomCutForAngDist = 2                                     ; 0-dont use;  1-use just MatrixKinematics; 2-use for all; (default 2)
      OddEvenCorrections = 1                                     ; 0-dont use;  1-use
 PostScissionEvaporation = 1                                     ; 0-dont use;  1-use
   DeexcitFunctionPoints = 0                                     ; 0- average deexcitation energy;  1- 3 points; 2 - manually
           FisEXmanually = 20                                    ; Excitation energy manually
           FisCSmanually = 1000                                  ; Cross section manually
            FisTXEmethod = 1                                     ; 0-from Edissipated, 1 from Q-value
                   Fis_f = 0.0045                                ; default 0.0045
              FisEXsigma = 5.5                  MeV              ; default 5.5
            FisCS_Global = 1e-15    
               FisCS_TKE = 1e-8     
                      N0 = 83                                    ; default 82
                     dU0 = -2.65                                 ; default -2.5
                      C0 = 0.7                                   ; default 1.4
                   cpol0 = 0.65                                  ; default 0.65
                  width0 = 0.63                                  ; default 0.63
                      N1 = 90                                    ; default 90
                     dU1 = -3.8                                  ; default -5.5
                      C1 = 0.15                                  ; default 0.16
                   cpol1 = 0.55                                  ; default 0.55
                  width1 = 0.97                                  ; default 0.97

[charge_suppression]
                 FragInd = 1e-3     
               FragTotal = 1e-5     
                 BeamInd = 1e-9     
               BeamTotal = 1e-11    

[convolution]
        Convolution mode = 2                                     ; 0-Qgg, 1-Surface, 2-Qgg+Surface
               SigmaConv = 91.5                 MeV/c            ; default 90 for Convolution
              CoefConv_0 = 3.344 
              CoefConv_1 = 5.758 
              CoefConv_2 = 2.936 
             ShiftConv_0 = 0.158 
             ShiftConv_1 = 0.149 
             ShiftConv_2 = 0.153 

[evaporation]
          NP evaporation = 16                                    ; Number of points in distribution
              EvapMethod = 2
        StateDensityMode = 2                                     ; 0, 1+pairing, 2+shell
      EvapUnstableNuclei = 1                                     ; 0 - only stable,1 +unstable
              Tunnelling = 1                                     ; 1-Yes, 0-No
          AvoidUnboundCS = 1                                     ; 1-Yes, 0-No
       ProtectedChannels = 1                                     ; 1-Yes, 0-No
           R_Evaporation = 5.7                  fm               ; correction for the effective Coulomb barrier
         Mode_Apf_manual = 0                                     ; 1-manual, 0-auto
             Energy_in_T = 2                                     ; default 2
     EvaporationVelocity = 0                                     ; 0 - quality, 1 -fast
        DeltaOddEvenEvap = 12    
     DeltaOddEvenFission = 14    
   BreakupTemperature250 = 4.7  
   BreakupTemperature150 = 5.9  
   BreakupTemperature050 = 8    
      BreakupDiffuseness = 0.05 
      DissipationKramers = 0                                     ; 0 - no, 1 - use
 DissipationStepFunction = 1                                     ; 0 - no, 1 - use
         DissipationBeta = 1                                     ; default 2.0
                 mode_1n = 1                                     ; 1-Yes, 0-No
                 mode_2n = 1                                     ; 1-Yes, 0-No
                 mode_1p = 1                                     ; 1-Yes, 0-No
                 mode_2p = 0                                     ; 1-Yes, 0-No
                  mode_a = 1                                     ; 1-Yes, 0-No
                  mode_d = 0                                     ; 1-Yes, 0-No
                  mode_t = 0                                     ; 1-Yes, 0-No
                mode_3he = 0                                     ; 1-Yes, 0-No
                mode_fis = 1                                     ; 1-Yes, 0-No
             mode_brk_up = 1                                     ; 1-Yes, 0-No
              mode_gamma = 0                                     ; 1-Yes, 0-No

[fission_barrier]
    FissionBarrierFactor = 1    
      FissionBarrierMode = 1                                     ; #0-4
      OddEvenCorrections = 1                                     ; 1-Yes, 0-No
        ShellCorrections = 1                                     ; 1-Yes, 0-No
             FB_InOutMax = 2                                     ; #0-2 - in/out/max
             ModeForUser = 1                                     ; #0-2
           NdeltaOddEven = 2.5  
           ZdeltaOddEven = 9    

[excitation_energy]
       GeomAA_Correction = 0                                     ; 0 - don't use,1 - use -default
          Thermalization = 0                                     ; 1-Yes, 0-No
          ThermaTimeCoef = 3e-22                                 ; 2.1e-22 MeV *s/e(t)
                Friction = 0                                     ; 0 - off,1 - on
          Ev_A_SigmaCoef = 9.6  
         G_FrictionCoef1 = 6.5  
         G_FrictionCoef2 = 0    
           G_FactorCoef1 = 1.5  
           G_FactorCoef2 = 2.5  
               DepthHole = 40    
          EnergyCoef_CB0 = 0       
          EnergyCoef_CB1 = 13.3     
          EnergyCoef_CB2 = 0       
           SigmaCoef_CB0 = 0       
           SigmaCoef_CB1 = 9.6     
           SigmaCoef_CB2 = 0       
              D_MeanTemp = 13       

[evapauto]
                  tun_a0 = 1.00938
                  tun_a1 = -0.36149
                  tun_a2 = 0.21551
                 A_Bound = 300                                   ; mass
               A_Pairing =  12                                   ; mass

[plot]
            Start target = Detector                              ; Detector & RF      
            Start of TOF = M8
            Stop  of TOF = M28
         dE-detector-1st = M24
         dE-detector-2nd = M28
            TKE-detector = M17
                PlotBrho = D1
               PlotWedge = S4
              X-detector = M17
              Y-detector = M17
                 Tilting = M1
                 Stopper = M2
                RO_Wedge = n
          ConditionBlock = A10
          Plot threshold = 1e-10                pps              ; minimal value for plot scale
     Shift of TOF for RF = 0                    ns               ; for dE-TOF plot with RF
  Fraction of RF trigger = 1
            UseCondition = 0
         TKE_calibration = 1,1,0,MeV                             ; Input PV(0) or CH(1), A, B, dimension

[cs_file]
              UserDiffCS = 0                                     ; Number of User Diff CS saved in this file
         AppendOverwrite = 0
          AttachedInside = 1
            ShowCSinPlot = 1
                    Chi2 = 1
              CSfilename = \\Mac\Home\Desktop\BRIKEN\CrossSections\xsec_g4top_settin1_lise.cs

[sec_reactions]
        NP sec.reactions = 16                                    ; Number of points in distribution
     Secondary reactions = 0                                     ; 0/1 - use secondary reactions in calculations
         fiss_FilterUse0 = 0
         fiss_FilterUse1 = 0
         fiss_FilterUse2 = 0
            fiss_ellipse = 5
          fiss_NdeltaTop = 0
          fiss_ZdeltaTop = 0
          fiss_NdeltaBot = 25
          fiss_ZdeltaBot = 20
         frag_FilterUse0 = 3
         frag_FilterUse1 = 3
         frag_FilterUse2 = 3
            frag_ellipse = 4
          frag_NdeltaTop = 5
          frag_ZdeltaTop = 5
          frag_NdeltaBot = 6
          frag_ZdeltaBot = 6
... 5150 more lines ...
Attachment 2: nuclei.png
nuclei.png
  112   Sat Nov 5 03:18:13 2016 SG BCR RCF NTBGamma peaks in the overnight run, related to neutron inelastic scattering

We looked at the overnight background run (161105_0935_BackgroundOvernight.root), There are gamma-peaks that could be related to neutron inerastic scattering. We identified 565, 596, 608 and 69 keV. They might be related to the effect of neutrons. If this is the correct assignment, this would mean at least some of the neutrons are not thermal when they interact with the germanium. 

There was also significant drift in the Ge gain (seen on the pulser) this may effect the shape of these peaks. 

Some gain drift was also seen on He preamps during this run. The cause is yet to be determined. It is also yet to be determined if these gain shifts are correlated. 

Attachment 1: 08.png
08.png
Attachment 2: 06.png
06.png
  53   Wed Jul 20 16:40:57 2016 S. Go, J.Agramunt, A.Tolosa, J.L. Tain,...CLOVER
Calibration and resolution check

CLOVER detectors were calibrated in energy with 60Co and 137Cs
60Co source: 2530, 8.81E4Bq (16/03/2010)
137Cs source: CD393 (box), ?
Sources were placed at the center

Resolution(FWHM@1333keV):
G7 Blue:2.67keV
G7 Green: 2.84keV
G7 Red: 2.77keV
G7 Black: 2.64keV
D4 Blue: 3.60keV
D4 Green: 3.35keV
D4 Red: 3.41keV
D4 Black: 4.85keV (!?)

Efficiency calibration with 152Eu
Source place at the center
Source: 272 (09-7011), 1.062E4Bq (error:1.9%)@16/03/2010
File: 160719_2201_152Eu_028.dlt
Online: 160719_2201_152Eu_028.root

Attached 152Eu spectrum
Attachment 1: 152Eu.png
152Eu.png
  52   Wed Jul 20 16:12:58 2016 S. Go, ...CLOVER
Mounting of the CLOVER detectors in position

CLOVER G7: right of beam
CLOVER D4: left of beam

G7 crystals:
Beam ->
Back view: 
Red   Blue
Green Black

D4 crystals:
Beam ->
Front view:
Red Green
Blue Black

Photos of the arrangement with COVER detectors attached
Attachment 1: DSC_2522.JPG
DSC_2522.JPG
Attachment 2: DSC_2523.JPG
DSC_2523.JPG
Attachment 3: DSC_2524.JPG
DSC_2524.JPG
  97   Tue Nov 1 13:00:55 2016 Roger CaballeroEff callibration parameters for G7-Clover
Efficiency calibration for the G7 clover (data acquired in July).
The attached plots show the parameters for the Jackel function (E[i]=Energy) using the points of a 152Eu source.

Roger





> Efficiency calibration
> 
> File "cloversEff.ods" and "cloversEff.xls" contains the experimental efficiency from different measurements
> during July and October
> (G7 broke before Eu-152 measurement). We can assume the efficiency didn't change from July measurements to
> October measurements. 
Attachment 1: G7-Blue.pdf
G7-Blue.pdf
Attachment 2: G7-Green.pdf
G7-Green.pdf
Attachment 3: G7-Red.pdf
G7-Red.pdf
Attachment 4: G7-Black.pdf
G7-Black.pdf
  99   Wed Nov 2 01:19:46 2016 Roger CaballeroEff callibration parameters for D4-Clover
Efficiency calibration for the D4 clover (data acquired in October).
The attached plots show the parameters for the Jackel function (E[i]=Energy) using the points of 152Eu, 60Co and 137Cs sources.

Roger





> Efficiency calibration
> 
> File "cloversEff.ods" and "cloversEff.xls" contains the experimental efficiency from different measurements
> during July and October
> (G7 broke before Eu-152 measurement). We can assume the efficiency didn't change from July measurements to
> October measurements. 
Attachment 1: D4-Black.pdf
D4-Black.pdf
Attachment 2: D4-Red.pdf
D4-Red.pdf
Attachment 3: D4-Green.pdf
D4-Green.pdf
Attachment 4: D4-Blue.pdf
D4-Blue.pdf
  100   Wed Nov 2 02:26:22 2016 Roger CaballeroEfficiency callibration calculator (Excel file)
Attached the updated excel file. In the first sheet there is the calculator to calculate the efficiency from an given energy.

The Jackel function used is:
Double_t fun=TMath::Exp((par[0]+par[1]*TMath::Log(x[0])+par[2]*TMath::Log(x[0])*TMath::Log(x[0]))*2/TMath::Pi()*
(TMath::ATan(TMath::Exp(par[3]+par[4]*TMath::Log(x[0])+par[5]*TMath::Log(x[0])*TMath::Log(x[0]))))-25.);




> Efficiency calibration
> 
> File "cloversEff.ods" and "cloversEff.xls" contains the experimental efficiency from different measurements
> during July and October
> (G7 broke before Eu-152 measurement). We can assume the efficiency didn't change from July measurements to
> October measurements. 
Attachment 1: cloversEff.xls
  108   Fri Nov 4 03:37:27 2016 Roger CaballeroEnergy calibration for Ge clovers
Energy Calibration: See attached pdf

Detector Slope Offset
V2A7C1 0.00155643 0.0842245
V2A7C2 0.000658962 0.78685
V2A7C3 0.00153391 1.198
V2A7C4 0.00157933 0.483094
V2A7C5 0.000704268 0.31553
V2A7C6 NOT THERE
V2A7C7 0.00066837 0.465225
V2A7C8 0.000695872 0.678058





> Energy calibration for clovers, 152Eu
> 
> 
> 
> The Eu source positioned in the center roughly. 
> File name: 161103_1426_152Eu.root
Attachment 1: 20161104-HpGe-EnergyCal.pdf
20161104-HpGe-EnergyCal.pdf
  3   Fri Oct 31 12:58:49 2014 Robert GrzywaczEntry test - preamps
Here is a picture of one of our Mesytec preamplifiers. We have  located all seven of them. 
They  have 16 input channels and a common SHV per board.

<p>&nbsp;<a href="141031_125516/24.png?lb=BRIKEN"><img border="0" alt="24.png" src="141031_125516/24.png?
lb=BRIKEN&amp;thumb=1" name="att0" id="att0" /></a></p>
Attachment 1: 24.png
24.png
  347   Tue Oct 24 13:14:47 2017 RYCalibration data for clovers

for energy calibration with 152Eu source

171024_1858_152Eu_G7.root
171024_2112_152Eu_D4.root

Attachment 1: 171024_1858_152Eu_G7.root
Attachment 2: 171024_2112_152Eu_D4.root
  340   Sun Oct 22 05:15:26 2017 RG,RY,MS,ATD,JA,JLTCheck of YSO
We start a systematic check of YSO in BRIKEN DACQ

WE check and correct a configuration file for YSO alone
Conf file: 171022_1306_YSO_Conf.xlsx

First measurement: 
change the light pulser attenuation and check 
changes of X and Y position
Root file: 171022_1314_pulserAtCenter.root

We change configuration file to remove amplitude 
range condition to buil position
New configuration file:171022_1332_YSO_Conf.xlsx

Now start moving the light pulser position using a mask:

Light pulse position: Top Left Out
Root file: 171022_1335_pulseTopLeftOut.root

Light pulse position: Bottom Left Out
Root file: 171022_1341_pulseBottomLeftOut.root

Light pulse position: Bottom Right Out
Root file: 171022_1345_pulseBottomRightOut.root

Light pulse position: Top Right Out
Root file:171022_1350_pulseTopRightOut.root

Light pulse position: Top Left In
Root file: 171022_1401_pulseTopLetIn.root

Light pulse position: Bottom Left In
Root file: 171022_1406_pulseBottomLeftIn.root

Light pulse position: Bottom Right In
Root file: 171022_1410_pulseBottomRightIn.root

Light pulse position: Top Right In
Root file: 171022_1416_pulseTopRightIn.root

Now we ramp the PMT high voltage starting at 600V: 
600V, 650V, 700V, 750V, 800V, 900V, 950V, 1000V, 1050V, 1100V, 1150V
Pulser at Top Left Out
Root file: 171022_1445_HVramp_pulseTopLeftOut.root
Attachment 1: 171022_1306_YSO_Conf.xlsx
Attachment 2: 171022_1314_pulserAtCenter.root
Attachment 3: 171022_1332_YSO_Conf.xlsx
Attachment 4: 171022_1335_pulseTopLeftOut.root
Attachment 5: 171022_1341_pulseBottomLeftOut.root
Attachment 6: 171022_1345_pulseBottomRightOut.root
Attachment 7: 171022_1350_pulseTopRightOut.root
Attachment 8: 171022_1401_pulseTopLetIn.root
Attachment 9: 171022_1406_pulseBottomLeftIn.root
Attachment 10: 171022_1410_pulseBottomRightIn.root
Attachment 11: 171022_1416_pulseTopRightIn.root
Attachment 12: 171022_1445_HVramp_pulseTopLeftOut.root
  345   Mon Oct 23 09:43:00 2017 RG, RY, MS, SG, AT137Cs YSO
measurement of 137Cs with YSO 
after matching the gains of the 
HighGain channels


YSO detector was inside the black box, outside the matrix. 
The source was placed in front of the YSO

First measurement
Start: 15:14
End: 16:55
RootFile: 171023_1655_137CsYSO.root

Second measurement (same conditions )
Start: 16:55
Run number: 070
End:   17:41
File:     171023_1655_137CsYSO_070.dlt
RootFile: 171023_1655_1741_137CsYSO_070.root

The 137Cs source is weak; the rate of the YSO detector was about 50Hz (without source is 10Hz).
Attachment 1: 171023_1655_137CsYSO.root
Attachment 2: 171023_1655_1741_137CsYSO_070.root
Attachment 3: Screenshot_from_2017-10-23_17-51-37.png
Screenshot_from_2017-10-23_17-51-37.png
Attachment 4: Screenshot_from_2017-10-23_17-54-53.png
Screenshot_from_2017-10-23_17-54-53.png
  346   Tue Oct 24 03:08:23 2017 RG, RY, MS, JA, RCF, SG, ATlight pulser YSO
light pulser measurement
SN's pulse generator 20ns width
Attachment 1: 171024_1107_YSOPlots.root
Attachment 2: Screenshot_from_2017-10-24_11-09-54.png
Screenshot_from_2017-10-24_11-09-54.png
  348   Wed Oct 25 01:02:14 2017 RGStatus of the YSO array

The presently used detector has 48x48x5 mm3 YSO array with 1x1mm2 segments. They are separated with ESR.  We use H8500 pspmt and 2 mm quartz diffuser with rough edges. Coupling is done with sylgard.  Anger logic uses a conventional resistive network with 1kohm and we have 4 position signals and dynode.  The position signals (xa,xb,ya,yb) are split in Low gain branch connected directly to 5V range input in Struck and High gain branch, which uses Phillips fast amplifier to boost the gain. The use of the amplifiers enables to operate the detector at low PSPMT gain and should give us a chance to work with the strong light produced by the implant.  The implant signals were simulated using blue diode and a pulse generator. We observed significant drift of the position for very large pulses, but this was for now attributed to be the pulse shape effect due to the use of the diode and reltively slow pulser.

YSO for now should run at -700 V.  The maximum operating voltage is 1200V and should not be exceeded. At 1200 V the ions induced signals may saturate our electronics.

Tuesday evening:

Detector remounted in the pedestal and aligned with WASABI with 1mm+1.5mm spacers. The pedestal is 25.8 mm tall and the box is 60 mm tall.  We checked also the orientation of the spectra and chose AIDA convention (look upstream). With this pedestal the front of the box is centered with the back of the clover leaf.

Wednestay morning:

I opened the detector and rewrapped it with new teflon tape. I noticed a small piece if sylgard peeled off, which may explain why the we had some edge effect yesterday. The detector was remounted on the new pedestal which will allow it to be positioned at the center of the clover.  The signals looked OK on the oscilloscope.

 

 

  227   Thu Mar 30 07:41:58 2017 RCF PV SN CG JARun 15
Date: 30/03/2017
Start: 16:05
BRIKEN run: 15
AIDA Run: R16_231
BigRIPS run: 157
DLT:170330_1605_Mg40_015.dlt

BRIKEN Rate: 4
F11 Rate: 13


Date:  30/03/2017
Stop: 17:21
BRIKEN run:15
AIDA Run: r16_252
BigRIPS run: 157

Root file:170330_1605_1721_B015_Mg40.root
OBSERVATIONS: 
  214   Wed Mar 29 18:16:58 2017 RCF40Mg Run 002
Date: 30/03/2017

Start: 02:16
BRIKEN run: 002
AIDA Run: R16_4
BigRIPS run: 143
DLT: 170330_0216_Mg40_002.dlt

BRIKEN Rate: 6cps
F11 Rate: 13

Date: 30/03/2017
Stop: 02:38 (bigrips started new file 15 minutes ago)
BRIKEN run:002
AIDA Run:R16_5
BigRIPS run:144

Online not erased since JL left. Just Start File.
Root file: HISTOGRAMS NOT SAVED FOR THIS RUN

Observation: AIDA recovered at 02:15

Synchronization plot not generated. Some screenshots rom terminals attached. AIDA terminal has additional messages and between both terminals (AIDA/BIGRIPS) there is a constant offset apparently.
Attachment 1: 201703300234-SyncScreenshot.png
201703300234-SyncScreenshot.png
  215   Wed Mar 29 18:42:25 2017 RCF40Mg Run 003
 Date: 30/03/2017

Start: 02:39
BRIKEN run: 003
AIDA Run: R16_5
BigRIPS run: 144
DLT: 170330_0239_Mg40_003.dlt

BRIKEN Rate: 4cps
F11 Rate: 12
(First part of the run in the rate histogram was overlapping the previous data. The reason is not understood).

Date: 30/03/2017
Stop: 03:27
BRIKEN run:003
AIDA Run:R16_21
BigRIPS run:145 (just started)

Online not erased.
Root file:170330_0216_0326_B003_Mg40.root (accumulated with previous root)


Syncronization terminals on screenshots to compare with previous run. Due to the updates on each terminal are not with the same frequency it is hard to observe in the screenshots, but on live seems to be constant.
Attachment 1: 201703300252-SyncScreenshot.png
201703300252-SyncScreenshot.png
Attachment 2: 201703300307-SyncScreenshot.png
201703300307-SyncScreenshot.png
  216   Wed Mar 29 19:31:21 2017 RCF40Mg Run 004
 Date: 30/03/2017

Start: 03:29
BRIKEN run: 004
AIDA Run: R16_22
BigRIPS run: 145
DLT: 170330_0329_Mg40_004.dlt

BRIKEN Rate: 3.5cps
F11 Rate: 13


Date: 30/03/2017
Stop: 04:25
BRIKEN run:004
AIDA Run:R16_37
BigRIPS run:145

Online not erased.
Root file:170330_0216_0425_B004_Mg40.root (accumulated with previous root)


Syncronization: Difference of timestamps seems to be constant between AIDA and BIGRIPS values observed on terminals
  217   Wed Mar 29 20:27:53 2017 RCF40Mg Run005
 Date: 30/03/2017

Start: 04:29
BRIKEN run: 005
AIDA Run: R16_38
BigRIPS run: 146
DLT: 170330_0429_Mg40_005.dlt

BRIKEN Rate: 3.5cps
F11 Rate: 13


Date: 30/03/2017
Stop: 05:31
BRIKEN run:005
AIDA Run:R16_54
BigRIPS run:146

Root file:170330_0429_0531_B005_Mg40.root

OBSERVATIONS:
04:29 -> Beginning of the run Shunji and Liu removed the degrader. For this reason I erased the online
histograms from previous runs.
04:50 -> It looks like AIDA is still seeing "nothing". Shunji and Liu put the degrader back again at 13mm Al deg.
During the run: Syncronization: Difference of timestamps between AIDA and BIGRIPS observed on terminals constant.
  218   Wed Mar 29 21:34:20 2017 RCF40Mg Run 006
 Date: 30/03/2017

Start: 05:42
BRIKEN run: 006
AIDA Run: R16_57
BigRIPS run: 147
DLT: 170330_0542_Mg40_006.dlt

BRIKEN Rate: 3.5cps
F11 Rate: 12


Date: 30/03/2017
Stop: 06:43
BRIKEN run:006
AIDA Run:R16_73
BigRIPS run:147

Root file:170330_0429_0643_B006_Mg40.root (accumulated)

OBSERVATIONS:
Carbon foil changed at the beginning of this run.
AIDA is still seeing "nothing" Liu changes the distance of the Al degrader from 13mm to 11mm.
Syncronization: Difference of timestamps between AIDA and BIGRIPS observed on terminals remains constant.
6:40: BIGRIPS stop the run and they ar doing calibrations for 20-30 minutes.
ELOG V3.1.4-unknown