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[null,null,null,null,null,null,"S12ZVM Power Dissipation Calculator "]
[]
[]
[]
[null,"Introduction"]
[null,"Thermal analyses are difficult to perform and would require sophisticated methods, e.g. measurements or simulations."]
[null,"For exact modeling, the thermal model should include the IC and its housing, PCB board, ECU housing, other components on the PCB board,"]
[null,"and their interactions/coupling, as shown as an example in the thermal equivalent circuit diagram: figure 1."]
[null,"Dynamic behaviour (thermal impedance rather than thermal resistance) could also play a role here."]
[]
[null,"This calculator does not provide that level of detail, but is intended to do some basic analysis."]
[]
[null,"Recommended use "]
[null,"A required thermal resistance Rthja (junction ambient) for the IC can be calculated based on application/ambient conditions and reference manual data. "]
[null,"As guideline this required Rthja can be compared with the Rthja values provided in the reference manual  which are simulated to be equivalent to the JEDEC "]
[null,"specification JESD51-2 or JESD51-7 in a horizontal configuration in natural convection."]
[null,"These show examples of  "]
[null,"- \"poor\" thermal resistance (guideline is a single sided PCB) and"]
[null,"- \"good\" thermal resistance (guildeline is a 4 layer PCB)."]
[]
[]
[null,"There are several contributors to the total power dissipation of the S12ZVM device."]
[]
[null,"Power dissipation and thermal characteristics are closely related. The user must assure that the maximum operating junction temperature is not exceeded. "]
[null,"The average chip-junction temperature (TJ) in °C can be obtained from:"]
[null,null,null,"TJ = TA + (PD • ΘJA)"]
[null,"with:"]
[null,"TJ = Junction Temperature, [°C]",null,null,null,"PD = Total Chip Power Dissipation, [W]"]
[null,"TA = Ambient Temperature, [°C]",null,null,null,"ΘJA = Package Thermal Resistance, [°C/W]"]
[]
[null,"This calculator helps to understand if the application uses the S12ZVM within the allowed die temperature limit . "]
[null,"It also helps to understand under which application conditions  the user could use a more cost optimized, lower temperature tested device option."]
[]
[null,"The total power dissipation PD can be calculated from the equation below. "]
[null,null,"PD = PVreg + PGDU + PCP + PBoost + PLIN"]
[null,"with:"]
[null,"PD = Total Chip Power Dissipation, [W]",null,null,null,"PVreg = Power Dissipation in the Main Voltage Regulator, [W]"]
[null,"PGDU = Power Dissipation in the Gate Drive Unit, [W]",null,null,null,"PCP = Power Dissipation in the Charge Pump, [W]"]
[null,"PBoost = Power Dissipation in the Boost Converter, [W]",null,null,null,"PLin = Power Dissipation in the LIN Transceiver, [W]"]
[]
[null,"The yellow fields are user entry fields."]
[null,"Please select following conditions and enter it into the yellow fields accordingly"]
[null,"Step 1 - Parameter Entry"]
[null,"Device Selection"]
[null,"- Select between our device list: S12ZVML12, S12ZVMC256, S12ZVM32, S12ZVMB, S12ZVMA"]
[null,"- Fields like GDU version and LIN/CAN modules are enable or dissable automatically according to device selected"]
[null,"Voltage regulator Parameters:"]
[null,"- Vbat : Max. Battery Voltage condition (max. 20/26V) -->  If boost mode is used , please also check the calculator result at 10.7V Vsup, which is the maximum input voltage using the boost mode!"]
[null,"- Vreg intern/extern: selection if external bypass transistor used to dissipate current of 5V supply load externally (option Vreg extern)"]
[null,"- Vdrop: Voltage drop on the reverse polarity protection device"]
[null,"- Base current: if external bypass transistor used, then Base current has to be specified"]
[null,"Digital logic Parameters:"]
[null,"- f_clk : select the bus frequency (max. 50MHz)"]
[null,"- I_external : external load current on IOs like for sensor supply"]
[null,"Gate Drive Unit Parameters:"]
[null,"- switching algorithm : select between sinusoidal commutation , which switches all 6 MOSFETs with given PWM frequency, or block commutation, which switches only two phases at a time."]
[null,"(2 MOSFETs with full PWM frequency, 4 others with low frequency given by the max. motor speed)"]
[null,"- f_PWM: switching frequency of the MOSFETs"]
[null,"- Total gate Charge: parameter of the selected MOSFETs"]
[null,"- motor speed mechanical: max. motor speed, which influences the switching frequency of the 4 slower switching MOSFETs when using block commutation"]
[null,"- pole pairs: number of permanent magnet pole pairs of the motor "]
[null,"Charge Pump Parameters:"]
[null,"- Charge Pump use : select if application uses charge pump to support 100% duty cycle and reverse polarity protection MOSFET gate drive ."]
[null,"- nbr. of high side drivers : select how many phases are driven by the CP"]
[null,"Boost Converter Parameters:"]
[null,"- Boost Converter use : select if application uses boost converter to support motor drive down to 3.5V Vbat"]
[null,"- Boost frequency : select switching frequency of MOSFET in boost converter (from f_bus/512 to f_bus/4 )"]
[null,"- Boost frequency duty cycle : select duty cycle of the MOSFET switching frequency in boost converter (24%, 50% or 75% )"]
[null,"- Boost Incuctance : size of external coil. The smaller the value, the higher the coil current and the power dissipation in the Boost Converter"]
[null,"LIN Parameters:"]
[null,"- LIN transceiver use : select if application uses LIN transceiver in the device (also needs to be enabled if transceiever used for PWM protocol)"]
[null,"Temperature:"]
[null,"- Ambient temperature : selects the ambient temperature of the S12ZVM device"]
[null,"Thermal resistance"]
[null,"- Rth total : selects the thermal resistance between the board and the die (cell C35)"]
[]
[null,"Step 2 - Result verification"]
[null,"Check the resulting Tj field (C41). Check it for different Vbat entry values, especially also select a value <10.8V Vsup to test the Boost converter influence, if Boost mode used."]
[null,"If the field is green your setup is within the specification limit of 175°C max. die temperature. If it is red, your resulting chip temperature is above 175°C."]
[null,"The traffic light in the field gives you a yellow warning if within the 10% range of the max. limit"]
[null,"If the field shows a spec violation. Or in case you select a lower temperature variant and the result exceeds the max. temperature of this variant step 3 is needed (for example 125°C for the M-temp option)"]
[null,"The shown value max Rth total in cell C43 give you a guideline, which Rth is needed to meet the max. Tj limit."]
[null," In case you are much below the Tj limit, you may be able to reduce the board space and can increase the Rth value up to the proposed value."]
[null," In case you are above the Tj limit, this field gives you a guideline up to which Rth you would need to optimize your board layout if all other system parameters stay the same."]
[]
[null,"Step 3 - System Optimization"]
[null,"Check possible optimizations in your system. This can be for example:"]
[null,"- reduction of the bus frequency"]
[null,"- Boost converter settings (coil, frequency, duty cycle)"]
[null,"- commutation algorithm"]
[null,"- reduction of the thermal resistance (optimization of board layout)"]

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[]
[]
[]
[null,null,null,null,null,null,"MagniV Power Dissipation Calculator ",null,null,null,null,null,null,null,null,null,null,"Rev 5"]
[]
[]
[null,"Summary",null,null,null,"❶ Select the Device Part Number:","S12ZVML12"]
[null,null,null,"Unit"]
["Power Dissipation ","Summary:  Total Power Dissipation",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,"For all, except S12ZVMB",null,null,"For all, except S12ZVMC256",null,null,"For S12ZVMB64",null,null,"For S12ZVMC256"]
[null,"Pdigital ",{"$f":"K43","v":184},"mW",null,"Power Supply ",null,null,"Digital Logic ",null,null,null,"Gate Drive Unit",null,null,null,null,null,"Charge Pump",null,null,"Boost Converter ",null,null,"LIN Transceiver",null,null,"High-Side Drivers",null,null,"CAN Transceiver"]
[null,"PVreg",{"$f":"G43","v":596.69999999999993},"mW",null,null,null,"Unit ",null,null,null,"Unit",null,null,"Unit ",null,null,"Unit",null,null,"Unit ",null,null,"Unit ",null,null,"Unit ",null,null,"Unit ",null,null,"Unit "]
[null,"PVDDS1,2",{"$f":"G35+G40","v":0},"mW",null,"Vbat",18,"V","fbus",null,10,"MHz","Vsup",{"$f":"G17","v":17.75},"V","GDU in use ?","Yes",null,"Charge Pump in use ?","Yes",null,"Boost-Converter in use ? ","Yes",null,"LIN-Module in use ? ","Yes",null,null,null,null,"CAN-Module in use ? ","Yes"]
[null,"PGDU",{"$f":"N43","v":262.7403670634921},"mW",null,"V_reg intern ?","Yes",null,null,null,null,null,null,null,null,"Phases Available",{"$f":"IF(G7=\"S12ZVML12\",\"3-Phase GDU\",IF(G7=\"S12ZVMB\",\"2-phase GDU\",IF(G7=\"S12ZVMA\",\"1-phase GDU\",IF(G7=\"S12ZVM32\",\"3-Phase GDU\",\"3-Phase GDU\"))))","v":"3-Phase GDU"},null,"Number of high side drivers ?",3,null,"Vboost_in (HD = rev. prot. Vbat)",{"$f":"N12","v":17.75},"V","V_lin_sup",{"$f":"G17","v":17.75},"V","V_sup_hs",{"$f":"G17","v":17.75},"V","Vddc_sup",{"$f":"G17","v":17.75},"V"]
[null,"PCP",{"$f":"T43","v":1.1906999999999999},"mW",null,null,null,null,null,null,null,null,null,null,null,"GDU revision",{"$f":"IF(G7=\"S12ZVML12\",\"v4\",IF(G7=\"S12ZVM32\",\"v5\",IF(G7=\"S12ZVMC256\",\"v6\",\"v5\")))","v":"v4"},null,null,null,null,null,null,null,null,null,null,null,null,null,"Voltage Regulator"]
[null,"PBoost",{"$f":"W43","v":0},"mW",null,"internal voltage regulator option",null,null,null,null,null,null,"❶Low Drop Out voltage regulator                                              ",null,null,null,null,null,null,null,null,"Vboost_out",{"$f":"IF(W13*(W28+W29)/W29>10.8,11,W13*(W28+W29)/W29)","v":11},"V","Data rate ",20,"KBaud","HS0 in use","Yes",null,"Regulated Voltage",5,"V"]
[null,"PLIN",{"$f":"Z43","v":33.762130208333332},"mW",null,"V_drop-->circuit protection",0.25,"V","Vdigital _in",null,{"$f":"IF(G17>4.9,5,G17)","v":5},"V","VLDO_out = VVLS_OUT ",{"$f":"IF((N12-0.3)>11,11,N12-0.3)","v":11},"V",null,null,null,"VCP_in [=VLDO_out ]",{"$f":"N16","v":11},"V",null,null,null,"static part ",null,null,"Load current HS0",50,"mA ","Base current ",1,"mA "]
[null,"PHS",{"$f":"AC43","v":0},"mW",null,"V_sup",{"$f":"G12-G16","v":17.75},"V","Idigital_dynamic gradient",null,{"$f":"IF(G7=\"S12ZVML12\",0.48,IF(G7=\"S12ZVMB\",0.67,IF(G7=\"S12ZVMA\",0.67,IF(G7=\"S12ZVM32\",0.411,IF(G7=\"S12ZVC\",0.4,IF(G7=\"S12ZVL\",0.39,0.57))))))","v":0.48},"mA/MHz","Vdrop",{"$f":"N12-N16","v":6.75},"V","❷Operational Amplifiers",null,null,"VCP_out",{"$f":"G17+T16-2*0.7","v":27.35},"V","Idigital = IVDDX",{"$f":"K27","v":46.8},"mA","Pv_recessive state",null,null,null,null,null," PBCTLC",{"$f":"AF16*(AF13-0.7)","v":17.05},"mW"]
[null,"PCAN",{"$f":"AF43","v":0},"mW",null,"V_out ",{"$f":"IF(G17>4.9,5,G17)","v":5},"V",null,null,null,null,"ILDO_static",0.2,"mA","Number of Shunts",2,null,null,null,null,"IVSUP ( IGDU + Iexternal + ILIN)",{"$f":"Q41","v":14.284246031746031},"mA","on V-lin_sup ",{"$f":"(10*0.000001/12)*Z13*1000*Z13","v":0.2625520833333333},"mW","HS1 in use","Yes",null,"CAN Traffic"]
[null,"Ptotal",{"$f":"C10+C11+C12+C13+C14+C15+C16+C17+C18","v":1078.3931972718253},"mW",null,"V_drop",{"$f":"IF(G17-G18>0,G17-G18,0)","v":12.75},"V",null,null,null,null,"ILDO_Load = IGD+ICP",{"$f":" Q37+T19","v":14.64},"mA","IGDU_OPAMP ",{"$f":"Q18*0.3","v":0.6},"mA","Iload",{"$f":"T13*N34*0.001","v":2.1},"mA","Iload ",{"$f":"IF(G13=\"Yes\",W18,W17+W18)","v":14.284246031746031},"mA","on Vddx ",3.17,"mW","Load current HS1",50,"mA ","CAN frame Duty Cycle",50,"%"]
[null,null,null,null,null,null,null,null,null,null,null,null,"PGDU_LDO",{"$f":"IF(N16>6.2,N17*Q37+N18*N12,0)","v":88.195000000000007},"mW","PGDU_OPAMP",{"$f":" G18*Q19","v":3},"mW",null,null,null,null,null,null,"on Vdd",0.14000000000000001,"mW",null,null,null,"CAN bit Duty Cycle",50,"%"]
[null,null,null,null,null,null,null,null,"Idigital = IVDDX","dynamic",{"$f":"K12*K17","v":4.8},"mA",null,null,null,null,null,null,null,null,null,"Rdson",1.4,"Ohm","Pv_rez",{"$f":"SUM(Z18:Z20)","v":3.5725520833333335},"mW","HSx Rds-on",18,"Ω","CAN dominant state",{"$f":"AF19*AF20/100","v":25},"%"]
[null,null,null,null,null,"PVreg_int",{"$f":"(G19*K27)","v":596.69999999999993},"mW",null,"static",{"$f":"IF(G7=\"S12ZVML12\",32,IF(G7=\"S12ZVMB\",9.97,IF(G7=\"S12ZVMA\",9.97,IF(G7=\"S12ZVM32\",20.02,IF(G7=\"S12ZVC\",28.5,IF(G7=\"S12ZVL\",9,21.2))))))","v":32},"mA","❸ Gate Driver dynamic part ",null,null,null,null,null,null,null,null,"IIN = ILAVG",{"$f":"W15*W19/W13","v":8.8522088084059902},"mA",null,null,null,null,null,null,"CAN recessive state",{"$f":"100-AF21","v":75},"%"]
[null,null,null,null,null,"external voltage regulator option       ",null,null,null,null,{"$f":"K21+K22","v":36.799999999999997},"mA","switching algorithm","sine commutation",null,"# of MOSFETs in operation",{"$f":"IF(N23=\"DC motor - HS only\", 1, IF(N23=\"DC motor\",2,6))","v":6},null,"Rdson_HS",100,"Ohm","Pboost_static (Conduction losses)",{"$f":"IF(W13<10.8,W22 * W22 /1000000 * W21 * W28/(W28+W29) * 1000,0)","v":0},"mW","Pv_ dominant state ",null,null,"static part ",null,null,"Transceiver current"]
[null,null,null,null,null,null,null,null,null,null,null,null,"# of MOSFETs GD_PWM switched",{"$f":"IF(N23=\"sine commutation\",6,IF(N23=\"DC motor - HS only\",1,2))","v":6},"pcs.","# of MOSFETs slow_PWM switched",{"$f":"IF(N23=\"block commutation\",2,0)","v":0},null,"Rdson_LS",35,"Ohm",null,null,null,"on V_lin_sup",{"$f":"(328*0.000001/12)*Z13*1000*Z13","v":8.6117083333333344},"mW","P_HS0",{"$f":"IF(AC15=\"No\",0,1000*(AC16/1000)^2*AC21)","v":45.000000000000007},"mW","IDOM, Dominant State",{"$f":"'S12CANPHY Electrical Specs'!D6","v":3.8},"mA "]
[null,null,null,null,null,"Base current ",1,"mA ","Iexternal",null,10,"mA ","Total Gate Charge of MOSFET",80,"nC","fmotor_mech",10000,"rpm",null,null,null,"fboost",100,"KHz","on Vddx ",5.5,"mW",null,null,null,"IRES, Recessive State",{"$f":"'S12CANPHY Electrical Specs'!D5","v":1.7},"mA "]
[null,null,null,null,null,null,null,null,null,null,null,null,"fGD_PWM",20,"kHz","Pole pairs",2,"pair","PCP_push_pull",{"$f":"(T23*4*(T19*T19)*0.000001*0.5+T24*4*(T19*T19)*0.000001*0.5)*1000","v":1.1906999999999999},"mW",null,null,null,"on Vdd",0.14000000000000001,"mW","P_HS1",{"$f":"IF(AC18=\"No\",0,1000*(AC19/1000)^2*AC21)","v":45.000000000000007},"mw","I_static, average",{"$f":"AF24*(AF21/100)+AF25*(AF22/100)","v":2.2249999999999996},"mA"]
[null,null,null,null,null,null,null,null,"Itotal",null,{"$f":"K23+K25","v":46.8},"mA","IGD_dynamic_avg_total",{"$f":"1000*(N24*(N25*0.000000001)*(N26*1000))","v":9.6000000000000014},"mA","fmotor_elec",{"$f":"(Q25/60*Q26)","v":333.33333333333331},"Hz",null,null,null,"Duty cycle ",75,"%","Pv_dom",{"$f":"SUM(Z24:Z26)","v":14.251708333333335},"mw",null,null,null,"PCAN_static",{"$f":"AF26*AF15","v":11.124999999999998},"mW"]
[null,null,null,null,null," PVreg_ext",{"$f":"G25*(G17-0.7)","v":17.05},"mW",null,null,null,null,null,null,null,"fGD_PWM_LS_SLOW",{"$f":"3/2*Q27","v":500},"Hz",null,null,null,"tON",{"$f":"(W27/100*1/W25)*1000","v":7.5},"µs",null,null,null,null,null,null,"CANH/CANL",null,null,"min, typ, max"]
[null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,"IGD_dynamic_avg_slow_total",{"$f":"IF(N23=\"block commutation\",Q28*(N25*0.000000001)*1000*Q24,0)","v":0},"mA",null,null,null,"tOFF",{"$f":"((100-W27)/100*1/W25)*1000","v":2.5},"µs","Pv_Lin_static",{"$f":"(Z21+Z27)*0.5","v":8.912130208333334},"mW",null,null,null,"VCANH - VCANL (dom)",3,"V","1.5, 2.0, 3.0"]
[null,null,null,null,null,"Only for S12ZVMC256",null,null,null,null,null,null,"PGDU_GD_dynamic_PWM",{"$f":"N27*N16","v":105.60000000000002},"mW","PGDU_GD_dynamic_SLOW",{"$f":"Q29*N16","v":0},"mW",null,null,null,"Inductance L",100,"µH",null,null,null,null,null,null,"VCANH - VCANL (rec)",0.05,"V","-0.5, 0, 0.05"]
[null,null,null,null,null,"VDDS1 sensor voltage regulator option",null,null,null,null,null,null,"PGDU_GD_dynamic",{"$f":"N30+Q30","v":105.60000000000002},null,null,null,"mW",null,null,null,"DI",{"$f":"(W13/W30)*W28*1000","v":1331.2499999999998},"mA ","dynamic part ",null,null,"dynamic part ","TBD",null,"Bus Impedance",60,"Ω"]
["Temperature","Temperature",null,null,null,"VDDS1 in use ? ","No",null,null,null,null,null,null,null,null,null,null,null,null,null,null,"IMAX",{"$f":"W22+W31/2","v":674.47720880840586},"mA",null,null,null,null,null,null,"I_out (dom)",{"$f":"1000*AF29/AF31","v":50},"mA"]
[null,null,null,null,null,"Base current ",1,"mA ",null,null,null,null,"❹ Gate Driver static part ",null,null,"Summary:  GDU Current Consumption ",null,null,null,null,null,"Pboost_dynamic (Switching losses)",{"$f":"IF(W13<10.8,(((1/6* (W22-W31/2)/1000 *(0.7+W15)*0.00000004*W25*1000)+(1/6* (W22+W31/2)/1000*(0.7+W15)*0.00000004*W25*1000))*1000),0)","v":0},"mW","power loss factor ",1.4,"mW/V",null,null,null,"I_out (rec)",{"$f":"1000*AF30/AF31","v":0.83333333333333337},"mA"]
[null,"T ambient C° ",105,"°C",null,null,null,null,null,null,null,null,"IGD_static_on",{"$f":" IF(Q14=\"v5\",600,700)","v":700},"µA","ILDO_static",{"$f":"N18","v":0.2},"mA",null,null,null,null,null,null,"Pv_Lin_dynamic  ",{"$f":"Z13*Z33","v":24.849999999999998},"mW","Pv_HS0_dynamic  ",0,"mW","I_out (average)",{"$f":"AF32*(AF21/100)+AF33*(AF22/100)","v":13.125},"mA"]
[null,"Rth total",46,"°C/W",null," PVDDS1",{"$f":"IF(G7=\"S12ZVMC256\",IF(G32=\"Yes\",G33*(G$17-0.7),0),0)","v":0},"mW",null,null,null,null,"IGD_static_off",{"$f":" IF(Q14=\"v5\",200,280)","v":280},"µA","IGD_static",{"$f":"N36","v":2.94},"mA",null,null,null,"Boost converter Mode",{"$f":"IF((W22-(W31/2))>0,\"Continuous\",\"Discontinuous\")","v":"Discontinuous"},null,null,null,null,null,null,null,"PIN",{"$f":"AF15*AF34","v":65.625},"mW"]
[null,null,null,null,null,"VDDS2 sensor voltage regulator option",null,null,null,null,null,null,"IGD_static",{"$f":"IF(N24=6,N24/2*N34*0.001+N24/2*N35*0.001,N24*N34*0.001+(Q23-N24)*N35*0.001)","v":2.94},"mA","IGD_dynamic",{"$f":"IF(N24=6,N27,N27+Q29)","v":9.6000000000000014},"mA",null,null,null,null,null,null,null,null,null,"Pv_HS1_dynamic  ",0,"mW"]
[null,"T Junction ",{"$f":"C34+(C19*0.001*C35)","v":154.60608707450396},"°C",null,"VDDS2 in use ? ","No",null,null,null,null,null,"PGDU_GD_static",{"$f":"G17*N36","v":52.185000000000002},"mW","IGD",{"$f":"Q35+Q36","v":12.540000000000001},"mA",null,null,null,null,null,null,null,null,null,null,null,null,"P_load (dom)",{"$f":"AF29*AF32","v":150},"mW"]
[null,null,null,null,null,"Base current ",1,"mA ",null,null,null,null,null,null,null,"IOpAmp",{"$f":"Q19","v":0.6},"mA ",null,null,null,"ratioBoost_on",{"$f":"1/(W22-W19)","v":-0.18409299474297819},null,null,null,null,null,null,null,"P_load (rec)",{"$f":"AF30*AF33","v":4.1666666666666671E-2},"mW"]
[null,"Input parameters possible if ",null,null,null,null,null,null,null,null,null,null,"❺ Measuring ciruit losses (HD/Phase Voltage dividers)",null,null,"Imeas",{"$f":"N40","v":0.94424603174603172},"mA ",null,null,null,"ratioBoost_off",{"$f":"1/W19","v":7.0007195183949461E-2},null,null,null,null,"PHS0",{"$f":"AC24+AC34","v":45.000000000000007},"mW ","P_load (average)",{"$f":"AF37*AF21/100+AF38*AF22/100","v":37.53125},"mW"]
[null,"Max Rth total ",{"$f":"(C42-C34)/(C19*0.001)","v":64.911388700419863},"°C/W",null," PVDDS2",{"$f":"IF(G7=\"S12ZVMC256\",IF(G37=\"Yes\",G38*(G$17-0.7),0),0)","v":0},"mW",null,null,null,null,"IMEAS",{"$f":"0.13+(N12 / 63000*1000)+(3*(N12/100000*1000))","v":0.94424603174603172},"mA",null,null,null,null,null,null,"Averaging factor",{"$f":"W38/(W39+W38)","v":1.6136363636363638},null,null,null,null,"PHS1",{"$f":"AC26+AC36","v":45.000000000000007},"mW ","PIN - PLOAD",{"$f":"AF35-AF39","v":28.09375},"mW"]
[null,null,null,null,null,null,null,null,null,null,null,null,"PGDU_MEAS",{"$f":"N12*N40","v":16.760367063492062},"mW","IGDU",{"$f":"Q34+Q37+Q38+Q39","v":14.284246031746031},"mA"]
[null,"Max Tj",175,"°C"]
[null,null,null,null,null," PVreg",{"$f":"IF(G13=\"No\",G28,G22)","v":596.69999999999993},"mW","Pdigital ",null,{"$f":"K23*K16","v":184},"mW","PGDU",{"$f":"IF(G7=\"S12ZVC\",0,IF(G7=\"S12ZVL\",0,IF(Q12=\"Yes\",N20+N31+N37+N41,0)))","v":262.7403670634921},"mW",null,null,null,"PCP",{"$f":"IF(G7=\"S12ZVC\",0,IF(G7=\"S12ZVL\",0,IF(T12=\"Yes\",T26,0)))","v":1.1906999999999999},"mW","PBoost",{"$f":"IF(G7=\"S12ZVC\",0,IF(G7=\"S12ZVL\",0,IF(G7<>\"S12ZVMB\",IF(W12=\"No\",0,(W33+W23)*W40),0)))","v":0},"mW ","PLIN",{"$f":"IF(G7=\"S12ZVC\",0,IF(G7<>\"S12ZVMC256\",IF(Z12=\"YES\",Z29+Z34,0),0))","v":33.762130208333332},"mW ","PHS",{"$f":"IF(G7=\"S12ZVMB\",(AC39+AC40),0)","v":0},"mW ","PCAN",{"$f":"IF(G7=\"S12ZVMC256\",IF(AF12=\"YES\",AF17+AF27+AF40,0),0)","v":0},"mW "]
[]
[null,null,"20°C/W for LQFP80-EP",null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,"External Voltage Regulator (Reference only)"]
[null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,"Total Current",{"$f":"AF26+AF34","v":15.35},"mA"]
[null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,null,"Power dissipation",{"$f":"AF46*(AF13-AF15)","v":195.71250000000001},"mW"]

{"sheet":"Revision History","index":2,"n_rows":9,"n_cols":3,"rows_kept":9,"cut":false,"hidden":false,"merged":[]}
[]
[]
["Date","Revision","Description"]
["2017-03-16","Rev 4","Added S12ZVMB gradient (.67) and static current "]
[null,null,"Added S12ZVMC256 gradient (.58) and static current "]
[null,null,"Added S12ZVM32 gradient (.41) and static current "]
["2018-02-22","Rev 5","Added S12ZVC MCU"]
[null,null,"Added S12ZVL MCU"]
[null,null,"Improved Interface"]

{"sheet":"S12CANPHY Electrical Specs","index":3,"n_rows":28,"n_cols":7,"rows_kept":28,"cut":false,"hidden":false,"merged":[]}
["S12CANPHY Electrical Specifications (from MC9S12ZVM_RM_V2.5.pdf)"]
[]
["Description","Symbol","MIN","TYP","MAX","UNITS"]
["Transceiver Current"]
["CANPHY Supply current, Normal mode, Bus in Recessive State","IRES",null,1.7,null,"mA"]
["CANPHY Supply current, Normal mode, Bus in Dominant State without Bus Load","IDOM",null,3.8,null,"mA"]
["CANPHY Supply current, Standby mode","ISTB",null,2.1999999999999999E-2,null,"mA"]
["CANPHY Supply current, Shutdown mode","ISDN",null,0,null,"mA"]
["CANH & CANL pins"]
["Differential Input Voltage, Normal, recessive","VCANH-VCANL",-1,null,0.5,"V"]
["Differential Input Voltage, Normal, dominant","VCANH-VCANL",0.9,null,5,"V"]
["Differential Input Voltage, Standby, recessive","VCANH-VCANL",-1,null,0.4,"V"]
["Differential Input Voltage, Standby, dominant","VCANH-VCANL",1.1000000000000001,null,5,"V"]
["Diff Input Hysteresis","VHYS",null,0.17499999999999999,null,"V"]
["Input Resistance","RIN",5,32.5,50,"KΩ"]
["Differential Input Resistance","RIND",10,65,100,"KΩ","=2*RIN"]
["Common Mode Input Resistance matching","RINM",-3,0,3,"%"]
["CANH Output Voltage (RL=60Ω, normal mode, TXD Dominant)","VCANH",2.75,3.5,4.5,"V"]
["CANH Output Voltage (RL=60Ω, normal mode, TXD Recessive)","VCANH",2,2.5,3,"V"]
["CANL Output Voltage (RL=60Ω, normal mode, TXD Dominant)","VCANL",0.5,1.5,2.25,"V"]
["CANL Output Voltage (RL=60Ω, normal mode, TXD Recessive)","VCANL",2,2.5,3,"V"]
["Differential Output Voltage (RL=60Ω, normal mode, TXD Dominant)","VOH-VOL",1.5,2,3,"V"]
["Differential Output Voltage (RL=60Ω, normal mode, TXD Recessive)","VOH-VOL",-0.5,0,0.05,"V"]
[]
["Output Current (RL=60Ω, normal mode, TXD Dominant)",null,{"$f":"C22/60","v":2.5000000000000001E-2},3.3333333333333333E-2,0.05,"mA"]
["Output Current (RL=60Ω, normal mode, TXD Recessive)",null,-8.3333333333333332E-3,0,8.3333333333333339E-4,"mA"]
[]
[null,null,"calculated values, not in datasheet"]