/******************* Machine Generated DataSet file ***********************/
SICC 1.80.0
SICC Reg.ID:42126    COM:4      DeviceID:19      Variant:006_48V    S/N:*****    RED:100%    PGEN:2000W    PNOM:2000W    phase:    BOM:30    BBID:0    SWID:69
Calibrator Version: 1.12
Datawriter Format code:1.02.34.61
File Name:c:\Users\aarmbrust\Documents\v67\006_48V\WIND2000W-006_48V_V69_SN_18019_00h_52m_07s.txt
06-30-2022(MM:DD:YY)
00:52:07
/**********************************************************************/

<start>
<Label>= ----------------------------------------------
<type>= SPACE
<end>

<start>
<Label>= U_SOLCV
<LongName>= Set point voltage in CV mode
<type>= PARA
<Secure>= 1
<function>= Udc
<source1>= _usollcalib_uw
<data1>= 35.07
<end>

<start>
<Label>= U_DCSTART
<LongName>= Start Voltage: Relay on
<type>= PARA
<Secure>= 1
<function>= Udc
<source1>= _udcstart_w
<data1>= 33.09
<end>

<start>
<Label>= U_DCLOW
<LongName>= Relay off: Low voltage. <U_MIN
<type>= PARA
<Secure>= 3
<function>= Udc
<source1>= _UDCLOW_nv
<data1>= 27.12
<end>

<start>
<Label>= U_DCHIGH
<LongName>= Relay off: High voltage. >U_MAX
<type>= PARA
<Secure>= 2
<function>= Udc
<source1>= _UDCHIGH_nv
<data1>= 110.05
<end>

<start>
<Label>= U_MIN
<LongName>= operating range: Min voltage
<type>= PARA
<Secure>= 3
<function>= Udc
<source1>= _UMIN_nv
<data1>= 32.09
<end>

<start>
<Label>= U_MIN_KL
<LongName>= minimum allowable voltage dependent on momentary power output
<type>= CURVE
<Secure>= 3
<function>= Udc
<source1>= _uminkl_x_pac
<data1>= 0,86,196,290,400,447,494,549,604,
<source2>= _uminkl_y_usol
<data2>= 13.7,14.6,16.6,18.5,20.5,22.4,24.4,26.4,30.3,
<end>

<start>
<Label>= U_MAX
<LongName>= operating range: Max voltage
<type>= PARA
<Secure>= 1
<function>= Udc
<source1>= _UMAX_nv
<data1>= 98.12
<end>

<start>
<Label>= UAChigh_zero
<LongName>= high AC voltage limit that causes zero current
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _uachizerocur
<data1>= 264
<end>

<start>
<Label>= UAClow_zero
<LongName>= low AC voltage limit that causes zero current
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _uaclowzerocur
<data1>= 184
<end>

<start>
<Label>= UAChigh_restart
<LongName>= high AC voltage limit to restart after zero current
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _uacmaxrest
<data1>= 253
<end>

<start>
<Label>= UAClow_restart
<LongName>= low AC voltage limit to restart after zero current
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _uacminrest
<data1>= 196
<end>

<start>
<Label>= UACLOW
<LongName>= low AC voltage limit for rapid shutdown
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _UACLOW
<data1>= 104.00
<end>

<start>
<Label>= UACHIGH
<LongName>= high AC voltage limit for rapit shutdown
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _UACHIGH
<data1>= 287.00
<end>

<start>
<Label>= UACMIN
<LongName>= low AC voltage limit for slow shutdown
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _UACsLOW
<data1>= 184.00
<end>

<start>
<Label>= UAC_AVGHIGH
<LongName>= high AC voltage limit 10 min average
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _AVG10MIN
<data1>= 253.00
<end>

<start>
<Label>= FMAX_PRED_KL
<LongName>= Frequency dependent power reduction
<type>= CURVE
<Secure>= 1
<function>= Uac
<source1>= _fpaclimkl_x_freq
<data1>= 20,60,100,150,
<source2>= _fpaclimkl_y_fac
<data2>= 0,16,32,52,
<end>

<start>
<Label>= FMIN_PINC_KL
<LongName>= Frequency dependent power increase
<type>= CURVE
<Secure>= 1
<function>= Uac
<source1>= _fpacinckl_x_freq
<data1>= 20,100,180,250,
<source2>= _fpacinckl_y_fac
<data2>= 0,32,64,96,
<end>

<start>
<Label>= OFFT_UAClow
<LongName>= max shutdown time due to low Uac for slow shutdown
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _tUAClow
<data1>= 1500
<end>

<start>
<Label>= OFFT_UAChigh
<LongName>= max shutdown time due to high Uac (10min average) for slow shutdown
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _tUAChigh
<data1>= 60
<end>

<start>
<Label>= OFFT_UAClow_fst
<LongName>= max shutdown time due to low Uac for rapid shutdown
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _tUAClowfast
<data1>= 340
<end>

<start>
<Label>= OFFT_UAChigh_fst
<LongName>= max shutdown time due to high Uac for rapid shutdown
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _tUAChighfast
<data1>= 60
<end>

<start>
<Label>= OFFT_FREQhigh
<LongName>= max shutdown time due to high frequency
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _tFmax
<data1>= 60
<end>

<start>
<Label>= OFFT_FREQlow
<LongName>= max shutdown time due to low frequency
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _tFmin
<data1>= 60
<end>

<start>
<Label>= STARTDELAY
<LongName>= time to check grid inside limits before startup
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _startdelay
<data1>= 60
<end>

<start>
<Label>= RAMP_RATE
<LongName>= rate of power increase after shutdown due to gridfailure
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _pac_ramp_rate
<data1>= 10
<end>

<start>
<Label>= RAMP_ACTIVE
<LongName>= activate/deactivate power rampt on startup instead of only after shutdown
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _ramp_active
<data1>= 0
<end>

<start>
<Label>= FMIN
<LongName>= minimal frequency
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _fmin
<data1>= 47.50
<end>

<start>
<Label>= FMAX
<LongName>= maximal frequency
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _fmax
<data1>= 51.50
<end>

<start>
<Label>= FNOM
<LongName>= nominal frequency
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _fnom
<data1>= 50.00
<end>

<start>
<Label>= FMAXSTART
<LongName>= maximum frequency for startup
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _fmaxstart
<data1>= 50.10
<end>

<start>
<Label>= D_COSPHISOL_KL
<LongName>= Power dependent Power factor set point
<type>= CURVE
<Secure>= 1
<function>= CNF
<source1>= _cosphi_x_relpow
<data1>= 20,50,70,100,
<source2>= _cosphi_y_pfval
<data2>= 1.000,1.000,1.000,1.000,
<end>

<start>
<Label>= D_COSPHISTEP_KL
<LongName>= Power dependent Power factor step size for islanding detection
<type>= CURVE
<Secure>= 3
<function>= CNF
<source1>= _cosphistep_x_relpow
<data1>= 10,20,30,100,
<source2>= _cosphistep_y_pfval
<data2>= 0.010,0.005,0.005,0.005,
<end>

<start>
<Label>= D_COSPHIKAP
<LongName>= cosPHI - inductive(0) or capacitive(1)
<type>= PARA
<Secure>= 1
<function>= CNF
<source1>= _pflaglead
<data1>= 0
<end>

<start>
<Label>= COSPHI_PT1
<LongName>= PTI Time constant T for cos Phi setpoint
<type>= PARA
<Secure>= 1
<function>= CNF
<source1>= _cos_PT1_T
<data1>= 10
<end>

<start>
<Label>= P_MAX
<LongName>= Nominal Power
<type>= PARA
<Secure>= 1
<function>= CNF
<source1>= _pmaxx_w
<data1>= 1890.0
<end>

<start>
<Label>= P_MAX_CHARGE
<LongName>= Nominal Charge Power
<type>= PARA
<Secure>= 1
<function>= CNF
<source1>= _pmax_charge
<data1>= 0.0
<end>

<start>
<Label>= P_LIMALL
<LongName>= Absolute Power Limit
<type>= PARA
<Secure>= 3
<function>= BATTERY
<source1>= _plimall_w
<data1>= 2000.0
<end>

<start>
<Label>= ----------------------------------------------
<type>= SPACE
<end>

<start>
<Label>= Z_UMINRAMP
<LongName>= Umin Ramp Step time 
<type>= PARA
<Secure>= 2
<function>= MPP
<source1>= _tuminramp_nv
<data1>= 0.20
<end>

<start>
<Label>= Z_PT1DAC
<LongName>= PT1 filter for DAC night off
<type>= PARA
<Secure>= 3
<function>= NIGHTOFF
<source1>= _pt1sduty_nv
<data1>= 4.80
<end>

<start>
<Label>= Z_NIGHTOFF
<LongName>= Delay Time before Night Shutoff 
<type>= PARA
<Secure>= 1
<function>= NIGHTOFF
<source1>= _dt_nightoff_uw
<data1>= 300
<end>

<start>
<Label>= D_DACLOWHY1
<LongName>= When DAC is lower than this,switch to CV-mode
<type>= PARA
<Secure>= 3
<function>= NIGHTOFF
<source1>= _daclowukonshy1
<data1>= 29
<end>

<start>
<Label>= Z_DACLOWHY1
<LongName>= Debounce time for D_DACLOWHY1
<type>= PARA
<Secure>= 3
<function>= NIGHTOFF
<source1>= _tdaclowhy1_nv
<data1>= 5.12
<end>

<start>
<Label>= D_DACLOWHY2
<LongName>= When DAC is higher than this,come out of CV mode
<type>= PARA
<Secure>= 3
<function>= NIGHTOFF
<source1>= _daclowukonshy2
<data1>= 33
<end>

<start>
<Label>= Z_DACLOWHY2
<LongName>= Debounce time for D_DACLOWHY2
<type>= PARA
<Secure>= 3
<function>= NIGHTOFF
<source1>= _tdaclowhy2_nv
<data1>= 10.24
<end>

<start>
<Label>= ----------------------------------------------
<type>= SPACE
<end>

<start>
<Label>= U_DCFAK
<LongName>= Udc scaling factor for different voltage ranges
<type>= PARA
<Secure>= 3
<function>= Udc
<source1>= _udccorrfak
<data1>= 223
<end>

<start>
<Label>= U_AC_KL
<LongName>= Uac-linearisation.  Uac=f(uacraw)
<type>= CURVE
<Secure>= 3
<function>= Uac
<source1>= _ackl_x_uacraw
<data1>= 60,162,210,270,
<source2>= _ackl_y_uac
<data2>= 67,169,217,275,
<end>

<start>
<Label>= UAC_avgain
<LongName>= UAC voltage channel gain
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _ADE_avgain
<data1>= 4064297
<end>

<start>
<Label>= IAC_aigain
<LongName>= IAC current channel gain
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _ADE_aigain
<data1>= 3754297
<end>

<start>
<Label>= PAC_awgain
<LongName>= PAC active power gain
<type>= PARA
<Secure>= 3
<function>= Uac
<source1>= _ADE_awgain
<data1>= 5674297
<end>

<start>
<Label>= U_ACDAC_KL
<LongName>= DAC based Uac correction.  Uac=f(uacraw) + f(DAC)
<type>= CURVE
<Secure>= 3
<function>= Uac
<source1>= _ackl_x_dac
<data1>= 0,85,170,255,
<source2>= _ackl_y_uaccorr
<data2>= 10,6,4,2,
<end>

<start>
<Label>= D_UACTCORR_KL
<LongName>= temperature based Uac correction.  Uac=f(T)
<type>= CURVE
<Secure>= 3
<function>= Uac
<source1>= _tuac_x_scntc
<data1>= 82,183,248,
<source2>= _tuac_y_offs
<data2>= -8,0,8,
<end>

<start>
<Label>= ----------------------------------------------
<type>= SPACE
<end>

<start>
<Label>= D_DACMIN_KL
<LongName>= DAC min limitation to avoid Boost mode operation
<type>= CURVE
<Secure>= 3
<function>= MPP
<source1>= _dacminkl_x_DAC
<data1>= 25.64,26.77,28.48,29.62,
<source2>= _dacminkl_y_DACmin
<data2>= 2,8,12,16,
<end>

<start>
<Label>= U_MPPSTEP_KL
<LongName>= DAC based step voltage for MPPT
<type>= CURVE
<Secure>= 3
<function>= MPP
<source1>= _mppstepkl_x_DAC
<data1>= 45,100,150,250,
<source2>= _mppstepkl_y_udc
<data2>= 0.57,0.57,0.57,0.57,
<end>

<start>
<Label>= Z_MPPSOL_KL
<LongName>= DAC based set point filter time
<type>= CURVE
<Secure>= 3
<function>= MPP
<source1>= _mppsol_x_DAC
<data1>= 0,80,160,255,
<source2>= _mppsol_y_tim
<data2>= 0.00,0.00,0.00,0.00,
<end>

<start>
<Label>= ----------------------------------------------
<type>= SPACE
<end>

<start>
<Label>= PT1_UDCDIFF
<LongName>= PT1 Time constant for UDC asymmetry filtering
<type>= PARA
<Secure>= 3
<function>= BRUMM
<source1>= _pt1udiff
<data1>= 250
<end>

<start>
<Label>= HUMMGOV_THRESH
<LongName>= Threshold for humm governor
<type>= PARA
<Secure>= 3
<function>= BRUMM
<source1>= _thresh_humgov
<data1>= 10
<end>

<start>
<Label>= D_NBRUMM_KL
<LongName>= Discharge Brumm compensation 
<type>= CURVE
<Secure>= 3
<function>= BRUMM
<source1>= _nbrummkl_x_DAC
<data1>= 20,30,50,80,110,160,220,250,
<source2>= _nbrummkl_y_kor
<data2>= 0,3,2,2,2,-1,-3,-4,
<end>

<start>
<Label>= D_BIBRUMM_KL
<LongName>= Charge Brumm compensation
<type>= CURVE
<Secure>= 3
<function>= BRUMM
<source1>= _bibrummkl_x_DAC
<data1>= 0,0,0,0,0,0,0,0,
<source2>= _bibrummkl_y_kor
<data2>= 0,0,0,0,0,0,0,0,
<end>

<start>
<Label>= ----------------------------------------------
<type>= SPACE
<end>

<start>
<Label>= U_WIND_KL
<LongName>= Pac based usol for Wind WR. usol = PT1_FILTER [ f(U_WIND_KL) ]
<type>= CURVE
<Secure>= 1
<function>= WIND
<source1>= _windkll_x_pac
<data1>= 8,39,78,133,204,290,384,502,690,973,1263,1498,1694,1875,1984,2000,
<source2>= _windkll_y_usol
<data2>= 31.9,40.4,44.4,48.4,52.4,57.0,61.0,64.9,68.9,73.5,77.5,81.5,85.5,90.0,94.0,98.0,
<end>

<start>
<Label>= Z_PT1WINDUSOL
<LongName>= PT1 filter for wind kl
<type>= PARA
<Secure>= 1
<function>= WIND
<source1>= _pt1windkl_nv
<data1>= 0.88
<end>

<start>
<Label>= ----------------------------------------------
<type>= SPACE
<end>

<start>
<Label>= D_BIDACZERO_KL
<LongName>= DAC for zero-poweroutput in BI-mode zeroDAC= f(udc))
<type>= CURVE
<Secure>= 3
<function>= BATTERY
<source1>= _bidaczerokl_x_Udc
<data1>= 0.00,0.00,0.00,0.00,
<source2>= _bidaczerokl_y_DAC
<data2>= 0,0,0,0,
<end>

<start>
<Label>= U_SOLBAT
<LongName>= battery voltage setpoint in BI-mode
<type>= PARA
<Secure>= 3
<function>= BATTERY
<source1>= _usollbat_uw
<data1>= 0.00
<end>

<start>
<Label>= Z_USOLBATFILT
<LongName>= Step time to change the set point
<type>= PARA
<Secure>= 3
<function>= BATTERY
<source1>= _tusollbatstep_nv
<data1>= 0.00
<end>

<start>
<Label>= D_DACOUTPC
<LongName>= DAC Manual
<type>= PARA
<Secure>= 3
<function>= BATTERY
<source1>= _dacoutpc
<data1>= 0
<end>

<start>
<Label>= U_SOLBATERR
<LongName>= Battery voltage setpoint for safety mode
<type>= PARA
<Secure>= 3
<function>= BATTERY
<source1>= _usollbaterr_uw
<data1>= 0.00
<end>

<start>
<Label>= P_MAXERR
<LongName>= Power Limit for safety mode
<type>= PARA
<Secure>= 3
<function>= BATTERY
<source1>= _pmaxerr_w
<data1>= 0.0
<end>

<start>
<Label>= S_BIOFF
<LongName>= Strategy switch for behavior in safety mode: 0:charge to U_SOLBATERR with P_MAXERR, 1:switch OFF, 2: charge to U_MAX with P_MAXERR
<type>= PARA
<Secure>= 3
<function>= CNF
<source1>= _s_bioff_uc
<data1>= 1
<end>

<start>
<Label>= ----------------------------------------------
<type>= SPACE
<end>

<start>
<Label>= D_PGAIN
<LongName>= PID-governor P-part
<type>= PARA
<Secure>= 3
<function>= MPP
<source1>= _pgain_uc
<data1>= 88
<end>

<start>
<Label>= D_IGAIN
<LongName>= PID-governor I-part
<type>= PARA
<Secure>= 3
<function>= MPP
<source1>= _igain_uc
<data1>= 33
<end>

<start>
<Label>= D_DGAIN
<LongName>= PID-governor D-part
<type>= PARA
<Secure>= 3
<function>= MPP
<source1>= _dgain_uc
<data1>= 44
<end>

<start>
<Label>= P_PGAIN
<LongName>= PID-governor power P-part
<type>= PARA
<Secure>= 3
<function>= MPP
<source1>= _pgain_p
<data1>= 100
<end>

<start>
<Label>= P_IGAIN
<LongName>= PID-governor power I-part
<type>= PARA
<Secure>= 3
<function>= MPP
<source1>= _igain_p
<data1>= 80
<end>

<start>
<Label>= P_DGAIN
<LongName>= PID-governor power D-part
<type>= PARA
<Secure>= 3
<function>= MPP
<source1>= _dgain_p
<data1>= 0
<end>

<start>
<Label>= D_PHASE
<LongName>= L1, L2, L3 phase assignment
<type>= PARA
<Secure>= 1
<function>= CNF
<source1>= _phase_uc
<data1>= 0
<end>

<start>
<Label>= KAPIND
<LongName>= CP-control: 0...31, output 1...5  ON when bit is set
<type>= PARA
<Secure>= 3
<function>= CNF
<source1>= _pcfcalib_uc
<data1>= 0
<end>

<start>
<Label>= S_LOTHRESH
<LongName>= Current Threshold: 1=lo, 0=hi
<type>= PARA
<Secure>= 3
<function>= CNF
<source1>= _ithreshold_uc
<data1>= 1
<end>

<start>
<Label>= S_CVPMAX
<LongName>= switch for ext. control, 0:voltage and/or power control over Modbus, 1:voltage control over 0-10V, 2:power control over 0-10V, 3:voltage and/or power control over Modbus with timeoout, 4:overflow injection, 5:autonomous mode with programmable characteristic
<type>= PARA
<Secure>= 3
<function>= CNF
<source1>= _s_cvpmax_uc
<data1>= 0
<end>

<start>
<Label>= EXT10VRED_KL
<LongName>= %-reduction via ext. 0...10V 
<type>= CURVE
<Secure>= 3
<function>= CNF
<source1>= _v10red_x_volt
<data1>= 0.00,0.00,0.00,
<source2>= _v10red_y_red
<data2>= 0,0,0,
<end>

<start>
<Label>= EXT10VCV_KL
<LongName>= const.-voltage control via ext.0...10V 
<type>= CURVE
<Secure>= 3
<function>= CNF
<source1>= _v10cv_x_volt
<data1>= 0.00,0.00,0.00,
<source2>= _v10cv_y_usol
<data2>= 24.42,24.42,24.42,
<end>

<start>
<Label>= U_SOLCOR_KL
<LongName>= DAC-dependent change of voltage setpoint for BAT in mode 1, 4, 5
<type>= CURVE
<Secure>= 3
<function>= 0-10V
<source1>= _usolcorrkl_x_DAC
<data1>= 0,0,0,0,0,0,0,0,0,0,
<source2>= _usolcorrkl_y_ucorr
<data2>= -0.031,-0.031,-0.031,-0.031,-0.031,-0.031,-0.031,-0.031,-0.031,-0.031,
<end>

<start>
<Label>= SW_DISPLAY
<LongName>= switch displayed values
<type>= PARA
<Secure>= 3
<function>= CNF
<source1>= _switchdisplay
<data1>= 0
<end>

<start>
<Label>= SW_VERSION_ST
<LongName>= set hardware version of control unit to select pins used for D/A converter
<type>= PARA
<Secure>= 3
<function>= CNF
<source1>= _versionST
<data1>= 25
<end>

<SecureFile>=36006954,36015722,36014408,36014529,36010078,37207185