{"text_format":"1","workbook":"xlsx","n_sheets":6,"sheets":["Instructions","Schematic","Calculations","Internal IC Parameters","E_Series_Values","Diagrams"],"not_rendered":{"charts":0,"images":8,"macros":1,"external_links":0,"defined_names":97,"comments":1,"pivot_tables":0},"unopened":[],"bounds":{"document_bytes":16777216,"sheet_cells":100000,"rows_first":2000,"rows_last":500,"rows_between":2000,"halvings":0,"cell_chars":16384,"cell_head_chars":4096},"cells_cut":0,"cells_raw":0,"read":"whole","date_system":"1900"}

{"sheet":"Instructions","index":0,"n_rows":28,"n_cols":7,"rows_kept":28,"cut":false,"hidden":false,"merged":[[1,0,1,14],[3,0,3,14],[4,0,4,14],[20,15,20,18],[0,15,0,18],[1,15,1,18],[3,15,3,18],[4,15,4,18],[5,15,5,18],[16,6,16,9],[6,15,6,18],[8,15,8,18],[10,15,10,18],[7,0,7,18],[21,15,21,18],[22,15,22,18],[23,15,23,18],[9,0,9,18],[14,0,14,18],[11,0,11,18],[16,15,16,18],[17,15,17,18],[18,15,18,18],[19,15,19,18],[12,15,12,18],[13,15,13,18],[15,15,15,18],[15,0,15,14],[12,1,12,3]]}
[null,null,null,null,null,"UCC28630/1/2/3 Design Calculator"]
[]
[]
["1. The Macros must be ENABLED."]
[]
["2. Enter the desired design parameters in the YELLOW shaded boxes.."]
[]
["3. The spreadsheet will calculate the component values and power supply parameters and display the results in red type."]
[]
["4. For some parameters, prosivion is made for the user to override the suggested values with their own values. These cells are a lighter yellow."]
[]
["5. Note this design tool was generated to accompany datasheet UCC28630.pdf. It is recommended to read this datasheet before using this tool"]
[null,"UCC28630.pdf"]
[]
["6. There are comment boxes in the descriptions column of the Components and parameter calculations section which refer the user to the relevant section of the datasheet for that calculation."]
[]
[null,null,null,null,null,null,"Click Here to Start"]
[]
[null,"Disclaimer"]
[null,"This product is designed as an aid for customers of Texas Instruments.  No warranties, either express"]
[null,"or implied, with respect to this software or its fitness for any particular purpose is claimed by Texas"]
[null,"Instruments or the author.  The software is licensed solely on an \"as is\" basis.  The entire risk as to its"]
[null,"quality and performance is with the customer."]
[]
[]
["SLUC537"]
["Rev D"]
["2015-07-15"]

{"sheet":"Schematic","index":1,"n_rows":39,"n_cols":1,"rows_kept":39,"cut":false,"hidden":false,"merged":[]}
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[{"$f":"Instructions!A26","v":"SLUC537"}]
[{"$f":"Instructions!A27","v":"Rev D"}]
[{"$f":"Instructions!A28","v":"2015-07-15"}]

{"sheet":"Calculations","index":2,"n_rows":80,"n_cols":11,"rows_kept":80,"cut":false,"hidden":false,"merged":[[27,1,28,1],[25,6,25,9],[75,7,75,10],[77,7,77,10],[79,7,79,10],[26,6,26,10],[28,6,28,10],[30,6,30,10],[62,7,62,10],[73,7,73,10],[36,5,36,10],[71,7,71,10],[32,6,32,10],[67,7,67,10]]}
["UCC28630, UCC28631, UCC28632, UCC28633 Excel Design Tool",null,null,null,null,null,null,null,null,null,{"$f":"Instructions!A26","v":"SLUC537"}]
[null,null,null,null,null,null,null,null,null,null,{"$f":"Instructions!A27","v":"Rev D"}]
["This design tool was generated based on the information in datasheet",null,null,"UCC28630.pdf",null,null,null,null,null,null,{"$f":"Instructions!A28","v":"2015-07-15"}]
["It is recommended that you read this datasheet before using this design tool"]
["Enter Design Parameters and Chosen Component Values in Yellow Cells"]
[]
["Design Specifications"]
["Description",null,null,"Minimum ","Nominal","Maximum","Suggested","User \nOverride","Used","Unit"]
["RMS Input Voltage",null,null,88,115,265,null,null,null,"V"]
["Line Voltage Frequency",null,null,47,50,63,null,null,null,"Hz"]
["Output Voltage",null,null,null,24,null,null,null,null,"V"]
["Nominal Output Power",null,null,null,45,null,null,null,null,"W"]
["Transient Maximum Output Power",null,null,null,{"$f":"2*Pnom","v":90},null,null,null,null,"W"]
["Duration of Maximum Power delivery",null,"T_pmax",null,1,null,{"$f":"IF(E14>wt2_surge,wt2_surge,E14)","v":1},null,null,"ms","If the unit has a surge load requirement, enter the \nduration of the surge load here, if not set to zero."]
["Overload threshold (Continuous) (% of Pnom) ","Applies to UCC28630 only",3,1,null,null,null,null,null,null,"This sets the maximum percentage of the nominal \noutput power that the unit can supply continuously. See datasheet for full explanation of Overload timer."]
["Bulk Capacitance (~1.5-2uF/W of Pnom recommended)",null,null,null,null,null,{"$f":"2*Pnom","v":90},90,{"$f":"IF(H16,H16,G16)","v":90},"uF"]
["Full Load Efficiency Typical",null,null,null,0.87," ",null,null,null,"%"]
["Peak Input voltage",null,null,{"$f":"Vac_min*SQRT(2)","v":124.45079348883237},{"$f":"Vac_nom*SQRT(2)","v":162.63455967290594},{"$f":"Vac_max*SQRT(2)","v":374.7665940288702},null,null,null,"V"]
["Output Current",null,null,null,{"$f":"Pnom/Vout","v":1.875},{"$f":"Iout_limit","v":5.3317469890872085},null,null,null,"A"]
["Maximum Steady State Output power (POL)","Applies to UCC28630 only",null,null,{"$f":"CHOOSE($D$15,Pnom*1.1,Pnom*1.35,Pnom*1.6)","v":49.500000000000007},null,null,null,null,"W","This is the maximum power the unit can supply continuously with the chosen Overload Threshold"]
["External startup resistor",null,"Rext",null,200,null,null,null,null,"kΩ"]
["Pull up resistor from Drv pin to Bias voltage divider",null,"Rp",null,3.9,null,null,null,null,"kΩ"]
["Safe Extra Low Voltage level",null,"VSELV",null,60,null,null,null,null,"V"]
[]
["Bulk voltage calculation (Datasheet section 9.2.4.1)"]
["Time at which the falling bulk cap voltage equals the rectified line votlage at nominal output power.",null,"ωt2_nom",7.7286703483324031,"ms",{"$f":"D27+Vacpk_min*COS(wt2_nom*PI()*2*Fac_min/1000)","v":-1.592819387497002E-6},"See \"Line and bulk voltage\" explanatory diagram"]
["Minimum bulk voltage at nominal load",null,"Vbulkmin_nom",{"$f":"IF((Vacpk_min)^2-(2*Pnom*(wt2_nom*PI()*2*Fac_min/1000))/(Eff*Cbulk*0.000001*2*PI()*Fac_min)>0, (SQRT((Vacpk_min)^2-(2*Pnom*(wt2_nom*PI()*2*Fac_min/1000))/(Eff*Cbulk*0.000001*2*PI()*Fac_min))),0)","v":81.267895653731216},"V",{"$f":"IF(Vbulkmin_nom>=N*Vout*(1-δmax)/δmax,\"Ok\",\"Insufficient Bulk Cap\")","v":"Ok"},"If this cell is Red, the bulk capacitance is too low to supply the nominal output power"]
["Time at which the falling bulk cap voltage equals the rectified line votlage at the overload power threshold.","Applies to UCC28630 only","ωt2_pol",7.5742251154484714,"ms",{"$f":"D29+Vacpk_min*COS(wt2_pol*PI()*2*Fac_min/1000)","v":-5.1046330449366906E-4}]
["Minimum bulk voltage at POL",null,"Vbulkmin_OL",{"$f":"IF((Vacpk_min)^2-(2*P_ol*(wt2_pol*PI()*2*Fac_min/1000))/(Eff*Cbulk*0.000001*2*PI()*Fac_min)>0, (SQRT((Vacpk_min)^2-(2*P_ol*(wt2_pol*PI()*2*Fac_min/1000))/(Eff*Cbulk*0.000001*2*PI()*Fac_min))),0)","v":76.885587285209624},"V",{"$f":"IF(Vbulkmin_OL>=N*Vout*(1-δmax)/δmax,\"Ok\",\"Insufficient Bulk Cap\")","v":"Ok"},"If this cell is Red, the bulk capacitance is too low to supply the speicifed overload power"]
["Time at which the falling bulk cap voltage equals the rectified line votlage at the maximum power.",null,"ωt2_surge",7.5241903764473701,"ms",{"$f":"D31+Vacpk_min*COS(wt2_surge*PI()*2*Fac_min/1000)","v":8.120243534506244E-4}]
["Minimum bulk voltage when load is stepped from \nPnominal to Pmax for time Tmax",null,"Vbulkmin_surge",{"$f":"IF((Vacpk_min)^2-((2*Pmax*T_pmax*0.001)/(Eff*Cbulk*0.000001))-(2*Pnom*((wt2_surge-T_pmax)*PI()*2*Fac_min/1000))/(Eff*Cbulk*0.000001*2*PI()*Fac_min)>0, (SQRT((Vacpk_min)^2-((2*Pmax*T_pmax*0.001)/(Eff*Cbulk*0.000001))-(2*Pnom*((wt2_surge-T_pmax)*PI()*2*Fac_min/1000))/(Eff*Cbulk*0.000001*2*PI()*Fac_min))),0)","v":75.432619118468835},"V",{"$f":"IF(Vbulkmin_surge>=N*Vout*(1-δmax)/δmax,\"Ok\",\"Insufficient Bulk Cap\")","v":"Ok"},"If this cell is Red, the bulk voltage is too low to keep the output voltage in constant voltage regulation, the output will be in constant current regulation. \nNote that when Vbulk < Vbulkmin_nom the output may enter constant current regulation depending on the load power. \nThis calculation assumes that the max load is applied at the peak of line. To calculate the Vbulkmin_surge when the max load is applied at an arbitrary phase angle, please use the accompaying mathcad design file."]
["Parameter Entry"]
["Boundary mode Vbulk voltage @ Pnom",null,"Vboundary\n (=Vbulkmin_nom by default, \nenter an override value in cell D33 if desired)",null,{"$f":"IF(D33,D33,D27)","v":81.267895653731216},"V","This is the voltage at which the unit operates in boundary mode. The inductance calculation is based on this voltage. By default this is equal to Vbulkmin_nom on line 27. For more continuous operation, increase this voltage"]
["Target Vdd Voltage",null,"Vdd",18,"V"]
["Bias Diode Forward Voltage Drop",null,"Vbias_diode",0.7,"V"]
["Output Capacitor",null,"Cout",1300,"uF"]
["Secondary Side Reflected Voltage",null,"Vreflected",95,"V","- Recommended reflected output voltage = 120V, reflected output voltages of ~140V < Vreflected < 115V  may result in the design violating inductance to current sense resistance ratios required. In this case the inductance and or current sense resistance may have to be manually adjusted in the User Override column provided below. Increasing the boundary mode point will allow a greater range of reflected voltage. "]
["Output Rectifier Forward Voltage Drop",null,"Vrect",0.45,"V"]
["Rectifier Derating",null,"VRect_Derating",0.85,"%"]
["Transformer Core Maximum Flux density ",null,"Bpk",325,"mT"]
["Transformer Core Cross Sectional area",null,"Ae",96.6,"mm2"]
["Secondary to Bias Leakage inductance \n(as a percentage of the secondary inductance)",null,"%Llk_sb",0.06,"%","Approximate value on EVM transformer. "]
["MosFET total Gate Charge",null,"Qg_tot",30,"nC"]
["LED Diode Drop",null,null,1.8,"V"]
["Input X-capacitor value",null,"CX-cap",330,"nF"]
["Component and paramter calculation"]
[null,null,null,"Suggested","User \nOverride","Used","Units"]
["Target Turns Ratio ",null,"N",{"$f":"V_reflected/(Vout+V_rect)","v":3.8854805725971371},null,{"$f":"IF(E48,E48,D48)","v":3.8854805725971371}]
["Primary Inductance  \n(for boundary mode operation at Vbulkmin_nom)",null,"Lmag",{"$f":"1/(2*Pnom/Eff*(1/V_boundary+1/(N*(Vout+V_rect)))^2*Fsw_nom*1000)*1000000","v":309.07529497971683},null,{"$f":"IF(E49,E49,D49)","v":309.07529497971683},"uH"]
["Current Sense Resistance calculation\n(for boundary mode operation at Vbulkmin_nom)",null,null,{"$f":"(Vcs_max/pnir)*SQRT((Lmag*0.000001*Fsw_nom*1000*Eff)/(2*Pnom))","v":270.97306079708619},200,{"$f":"IF(E50,E50,D50)","v":200},"mΩ"]
["Standard E24 E-series value for Rcs",null,"Rcs",{"$f":"10^INT(LOG(F50))*INDEX((E_Series_Values!D2:D26),MATCH(MIN(ABS((E_Series_Values!$D$2:$D$26)-(F50/10^INT(LOG(F50))))),ABS((E_Series_Values!$D$2:$D$26)-(F50/10^INT(LOG(F50)))),0))","v":200},null,200,"mΩ"]
["Maximum Primary Current",null,"Ipk_max",{"$f":"Vcs_max/Rcs","v":4},null,4,"A"]
["Number of Primary Turns ",null,"Npri",{"$f":"ROUND(Lmag*0.000001*Ipk_max/(Bpk*0.001*Ae*0.000001),0)","v":39},null,39]
["Number of Secondary Turns ",null,"Nsec",{"$f":"ROUND(D53/N,0)","v":10},null,10]
["Number of Bias Turns",null,"Nbias",{"$f":"ROUND((Vbias+Vbias_diode)*Nsec/(Vout+V_rect),0)","v":8},null,8]
["Transformer Al",null,"Al",{"$f":"(Lmag*0.000001/Npri^2)*1000000000","v":203.20532214314056},null,203.20532214314056,"nH"]
["Rectifier Reverse Voltage Rating",null,"VRect_Rating",{"$f":"((Vacpk_max*Nsec/Npri)+Vout)/Rectifier_Derating","v":141.28705702228362},null,141.28705702228362,"V"]
["Vdd Capacitor Calculation (Minimum)",null,null,{"$f":"1000000*(Idd_run*0.001*tstart_del*0.001+(Idd_run*0.001+Fsw_nom*1000*Qg_tot*0.000000001)*(Vout*Cout*0.000001/(Iout_limit-Inom))*(Vddstop_max/Vbias))/(Vddstart_min-Vddstop_max)","v":16.229270499585272},null,16.229270499585272,"uF"]
["Next Highest Standard E-series value for CVdd (E6)",null,"CVDD",{"$f":"10^(IF(INT(LOG(F58))>1,INT(LOG(F58)),1))*INDEX(E_Series_Values!$F$2:$F$8,MATCH(MIN(IF((E_Series_Values!$F$2:$F$8)-(F58/10^(IF(INT(LOG(F58))>1,INT(LOG(F58)),1)))>=0,(E_Series_Values!$F$2:$F$8)-(F58/10^(IF(INT(LOG(F58))>1,INT(LOG(F58)),1))))),IF((E_Series_Values!$F$2:$F$8)-(F58/10^(IF(INT(LOG(F58))>1,INT(LOG(F58)),1)))>=0,(E_Series_Values!$F$2:$F$8)-(F58/10^(IF(INT(LOG(F58))>1,INT(LOG(F58)),1))))))","v":22},null,22,"uF"]
["Startup Delay",null,"Tstart_delay",{"$f":"Rext*1000*Cbias*0.000001*LN((Vacpk_min*2/PI())/((Vacpk_min*2/PI())-Vddstart_max))*1000","v":1027.49855052417},null,1027.49855052417,"ms"]
["Ra Calculation ",null,null,{"$f":"Rp*Nbias*Kline/Npri","v":39.4},null,39.4,"kΩ"]
["Standard E-series value for Ra (E96)",null,"Ra",{"$f":"10^INT(LOG(F61))*INDEX((E_Series_Values!$B$2:$B$97),MATCH(MIN(ABS((E_Series_Values!$B$2:$B$97)-(F61/10^INT(LOG(F61))))),ABS((E_Series_Values!$B$2:$B$97)-(F61/10^INT(LOG(F61)))),0))","v":39.200000000000003},null,39.200000000000003,"kΩ"]
["Rb Calculation",null,"Rb",{"$f":"Ra/((Vout*(1-Llk_sb)+V_rect)*(Nbias/Nsec)/Vout_ref-1)","v":26.952695269526959},null,26.952695269526959,"kΩ","It is suggested that Rb be implemented as two resistors \nin parallel to get as close to this value as possible."]
["RTH Value",null,"Rth",{"$f":"(Ra*Rb)/(Ra+Rb)","v":15.971316818774451},null,{"$f":"R_th","v":15.971316818774451},"kΩ"]
["Minimum load power to maintain regulation",null,null,{"$f":"0.5*Lmag*0.001*(Vcs_min/(Rcs))^2*(Fsw_min*1000)","v":22.859208816699859},null,22.859208816699859,"mW"]
["Maximum load resistance to maintain regultaion",null,null,{"$f":"(Vout^2-Vout*V_LED)/(2*P_preload_min)","v":11.65394664951749},null,11.65394664951749,"kΩ"]
["Next lowest standard E-series value for Rpreload",null,"Rpreload ",{"$f":"10^INT(LOG(F66))*INDEX((E_Series_Values!$D$2:$D$26),MATCH(MIN(IF((E_Series_Values!$D$2:$D$26)-(F66/10^INT(LOG(F66)))>0,(E_Series_Values!$D$2:$D$26)-(F66/10^INT(LOG(F66))),10)),(E_Series_Values!$D$2:$D$26)-(F66/10^INT(LOG(F66))),0)-1)","v":11},null,11,"kΩ"]
["Output Constant Current Limit (default 100% value)","Applies to UCC28630 only","Iout_limit",{"$f":"1/(Rcs*0.001)*Npri/Nsec*Kcc_1/(Kcc_2+Vout*N)","v":5.3317469890872085},null,{"$f":"Iout_limit","v":5.3317469890872085},"A","This is the default 100% CC limit - this can be adjusted between 50% - 100% on UCC28631, UCC28632 & UCC28633"]
["Output Capacitor Ripple Current @ Pnom",null,"Iripple(nom)",{"$f":"SQRT((Vcs_max*Npri/Nsec/(Rcs*pnir)*SQRT(Vbulkmin_nom/(3*(Vbulkmin_nom+Npri/Nsec*(Vout+V_rect)))))^2-Inom^2)","v":4.5135775903763751},null,{"$f":"I_cout_limit","v":4.5135775903763751},"A"]
["Maximum X-capacitance value that cap be \ndischarged using the current value of CVdd","Applies to UCC28630 & UCC28633 only","Xcap_max",{"$f":"Cbias*0.000001*(Vddstart_min-Vddreset_max)/(Vacpk_max-V_selv)*1000000000","v":454.30488086319644},null,{"$f":"Xcap_max","v":454.30488086319644},"nF"]
[]
[null,null,null,{"$f":"IF(AND((10<((Ra*Rb)/(Ra+Rb))),(((Ra*Rb)/(Ra+Rb))<20)),\"Ok\",\"Rth out of Range\")","v":"Ok"},null,null,null,"Is the thevenin equivalent resistance of the Ra,Rb resistor divider between 10kΩ and 20kΩ. If Rth is outside this range it will trigger a pin fault on startup and the IC will not start!!!"]
[]
[null,"Applies to UCC28630 & UCC28633 only",null,{"$f":"IF(Cbias*0.000001>=Cx_cap*0.000000001*(Vacpk_max-V_selv)/(Vddstart_min-Vddreset_max),\"Ok\",\"Xcap too large and/or Vdd cap too small\")","v":"Ok"},null,null,null,"Is the Vdd capacitor large enough to discharge the X-cap beow the SELV voltage level of 60V, without it's voltage rising about the IC start threshold."]
[]
[null,"Applies to UCC28630 & UCC28633 only",null,{"$f":"IF(Cbulk<=(Pnom/Eff)/(4*(Vacpk_max^2-V_selv^2))*1000000,\"Ok\",\"Too much Bulk capacitance\")","v":"Ok"},null,null,null,"Is the bulk capacitor below the level at which it will discharge the X-cap to the SELV \nlevel in 1 second when the power is above the threshold at which X-cap discharge is disabled."]
[]
[null,null,null,{"$f":"IF(Rcs*0.001/(Lmag*0.000001)<=(Vcs_min*0.001)/(t_smp*0.000001*Npri/Nsec*(Vout+V_rect)),\"True\",\"FALSE, \nIncrease Lpri or reduce Rcs\")","v":"True"},null,null,null,"Does the Rcs, Lpri ratio satisfy the Volt second contraint required for output sampling "]
[]
[null,null,null,{"$f":"IF((Rcs*0.001/(Lmag*0.000001))<=((Vcs_min*0.001)/(Vacpk_max*ton_min*1*10^-9)),\"True\",\"FALSE, \nIncrease Lpri or reduce Rcs\")","v":"True"},null,null,null,"Does the Rcs, Lpri ratio satisfy the Volt second contraint required for tonmin"]

{"sheet":"Internal IC Parameters","index":3,"n_rows":23,"n_cols":3,"rows_kept":23,"cut":false,"hidden":true,"merged":[]}
["Internal IC Parameters"]
[]
[null,"Vcsmax (mV)",800]
[null,"Vcsmin (mV)",172]
[null,"Vddstart_min (V)",13]
[null,"Vddstart_max (V)",16.5]
[null,"fswmin (kHz)",0.2]
[null,"fswnom (kHz)",60]
[null,"fswmax (kHz)",120]
[null,"Vout_ref (V)",7.5]
[null,"Vddstop_max (V)",8.5]
[null,"Vddreset_max (V)",6.5]
[null,"Iddrun (mA)",9]
[null,"Kcc1",44.5]
[null,"Kcc2",69.5]
[null,"Kline",49.25]
[null,"δmax",0.7]
[null,"pnfr",2]
[null,"pnir",1.25]
[null,"pnpr",2]
[null,"tonmin (ns)",600]
[null,"tsmp (us)",1.7]
[null,"tstart_del (ms)",3]

{"sheet":"E_Series_Values","index":4,"n_rows":98,"n_cols":6,"rows_kept":98,"cut":false,"hidden":true,"merged":[]}
[null,"E96","E48","E24","E12","E6"]
[1,{"$f":"ROUND(10^((A2-1)/96),2)","v":1},{"$f":"ROUND(10^((A2-1)/48),2)","v":1},1,1,1]
[2,{"$f":"ROUND(10^((A3-1)/96),2)","v":1.02},{"$f":"ROUND(10^((A3-1)/48),2)","v":1.05},1.1000000000000001,1.2,1.5]
[3,{"$f":"ROUND(10^((A4-1)/96),2)","v":1.05},1.1000000000000001,1.2,1.5,2.2000000000000002]
[4,{"$f":"ROUND(10^((A5-1)/96),2)","v":1.07},1.1499999999999999,1.3,1.8,3.3]
[5,{"$f":"ROUND(10^((A6-1)/96),2)","v":1.1000000000000001},1.21,1.5,2.2000000000000002,4.7]
[6,1.1299999999999999,1.27,1.6,2.7,6.8]
[7,1.1499999999999999,1.33,1.8,3.3,10]
[8,1.18,1.4,2,3.9]
[9,1.21,1.47,2.2000000000000002,4.7]
[10,1.24,1.54,2.4,5.6]
[11,1.27,1.62,2.7,6.8]
[12,1.3,1.69,3,8.1999999999999993]
[13,1.33,1.78,3.3,10]
[14,1.37,1.87,3.6]
[15,1.4,1.96,3.9]
[16,1.43,2.0499999999999998,4.3]
[17,1.47,2.15,4.7]
[18,1.5,2.2599999999999998,5.0999999999999996]
[19,1.54,2.37,5.6]
[20,1.58,2.4900000000000002,6.2]
[21,1.62,2.61,6.8]
[22,1.65,2.74,7.5]
[23,1.69,2.87,8.1999999999999993]
[24,1.74,3.01,9.1]
[25,1.78,3.16,10]
[26,1.82,3.32]
[27,1.87,3.48]
[28,1.91,3.65]
[29,1.96,3.83]
[30,2,4.0199999999999996]
[31,2.0499999999999998,4.22]
[32,2.1,4.42]
[33,2.15,4.6399999999999997]
[34,2.21,4.87]
[35,2.2599999999999998,5.1100000000000003]
[36,2.3199999999999998,5.36]
[37,2.37,5.62]
[38,2.4300000000000002,5.9]
[39,2.4900000000000002,6.19]
[40,2.5499999999999998,6.49]
[41,2.61,6.81]
[42,2.67,7.15]
[43,2.74,7.5]
[44,2.8,7.87]
[45,2.87,8.25]
[46,2.94,8.66]
[47,3.01,9.09]
[48,3.09,{"$f":"ROUND(10^((A49-1)/48),2)","v":9.5299999999999994}]
[49,3.16,10]
[50,3.24]
[51,3.32]
[52,3.4]
[53,3.48]
[54,3.57]
[55,3.65]
[56,3.74]
[57,3.83]
[58,3.92]
[59,4.0199999999999996]
[60,4.12]
[61,4.22]
[62,4.32]
[63,4.42]
[64,4.53]
[65,4.6399999999999997]
[66,4.75]
[67,4.87]
[68,4.99]
[69,{"$f":"ROUND(10^((A70-1)/96),2)","v":5.1100000000000003}]
[70,5.23]
[71,5.36]
[72,5.49]
[73,5.62]
[74,5.76]
[75,5.9]
[76,6.04]
[77,6.19]
[78,6.34]
[79,6.49]
[80,6.65]
[81,6.81]
[82,6.98]
[83,7.15]
[84,7.32]
[85,7.5]
[86,7.68]
[87,7.87]
[88,8.06]
[89,8.25]
[90,8.4499999999999993]
[91,8.66]
[92,8.8699999999999992]
[93,9.09]
[94,9.31]
[95,9.5299999999999994]
[96,9.76]
[null,10]

{"sheet":"Diagrams","index":5,"n_rows":33,"n_cols":1,"rows_kept":33,"cut":false,"hidden":false,"merged":[]}
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[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
[]
["Return"]
[]
[{"$f":"Instructions!A26","v":"SLUC537"}]
[{"$f":"Instructions!A27","v":"Rev D"}]
[{"$f":"Instructions!A28","v":"2015-07-15"}]