M61040FP MITSUBISHI | Alldatasheet

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Smart battery protection and monitoring IC M61040FP Mitsubishi Electric (1/25)

DESCRIPTION

The M61040FP is intended to be used as SB: Smart Battery. All functions needed for SB are packed to this M61040FP. The combination use with Microcomputer such as M37515 will give various functions such as a detection or calculation of SB Remaining Capacity. Over Current detection circuit dedicated in M61040FP will give safety FET on/off control independent from microcomputer control. The amp gain of charge/discharge current detection circuit is controlled by microcomputer, therefore the accuracy of SB ’s Remaining Capacity Detection becomes better than before. The reset circuit and The linear regulator for Vcc / Vref of microcomputer are dedicated in M61040FP. So this will help easy design of power circuit design of SB. FEATURE l Built-in high gain op-amps for monitoring charge/discharge current l Built-in over current detection circuit for FET protection l All FETs are controlled by microcomputer l Various powers saving function to reduce total power dissipation l High Input Voltage Device(Absolute Maximum Rating:33V) APPLICATION l Smart Battery System PIN configuration (Top view) GND VIN_12 DFOUT CFOUT Vref Reset Vreg VIN_11 CS CIN CK DI PFOUT Analog_out VIN_10 VIN_4 VIN_3 VIN_2 VIN_1 VCC M61040FP 20P-TSSOP Block diagram Multi- plexer circuit Reset Vref Vreg VIN_10VIN_11 VIN_1 GND CINVIN_12 PFOUTCFOUT DFOUT Analog _OUT VCC Series Regulator Charge/Discharge current detection circuit Battery cell voltage detection circuit VIN_2 VIN_3 VIN_4 Over current detection circuit Delay circuit Battery cell 1-4 voltage analog output Serial to Parallel conversion circuit CS DI CK Regulator ON/OFF and Reset circuit Offset control Gain selector

Smart battery protection and monitoring IC M61040FP Mitsubishi Electric (2/25) 1. Explanation of terminals Table 1. PIN Symbol Functions

5 VIN 1 Battery 1 + voltage input

6 VIN 2 Battery 1 – voltage and Battery 2 + voltage input

7 VIN 3 Battery 2 – voltage and Battery 3 + voltage input

8 VIN 4 Battery 3 – voltage and Battery 4 + voltage input

9 VIN 12 Monitoring charger is connected or not

13 CIN Connect capacitor for over current detection delay

11 VIN 10 Charge / discharge current monitor input and connects charge / discharge current

12 VIN 11 Charge / discharge current monitor input and connects charge / discharge current

1 VCC Power source pin. Power from charger or battery

10 GND Ground

20 Vreg Linear-Regulator output for microcomputer

19 Vref Vreg voltage output for Vreg of Microcomputer, Max 200uA / 5V

18 RESET Reset signal output to RESET of Microcomputer

14 Analog OUT Various Analog signal outputs to AD-input of Microcomputer

4 DFOUT Discharge FET-Drive Output. The Driver is turned off when over current detected. 2 CFOUT Charge FET-Drive Output. The Driver is turned off by Microcomputer.

17 DI Input of 6 bit length serial data from Microcomputer

16 CK Input of shift clock from Microcomputer. DI’s input data is latched by low-to-high edge of this CK 15 CS During low signal input to this CS, data input to DI is enabled. 3 PFOUT Pre-charge FET-Drive Output. The Driver is turned off by Microcomputer.

Smart battery protection and monitoring IC M61040FP Mitsubishi Electric (3/25) 2. Operation description M61040 is developed for intelligent Li-ion battery pack such as SB in SBS. M61040 is suitable for Smart Battery. *SBS: Smart Battery System introduced by Intel and Duracell *SB: Smart Battery which contains 3 or 4 series Li-ion battery cells. All analog circuits are included to M61040. Therefore pair using with Microcomputer such as M37515 and small additional parts will give various functions such as battery remaining capacity detection. All functions are described as follows: 1)Voltage Detection circuit of each Li-ion battery cells M61040 can output each battery cell ’s voltage of 3 or 4 series connection. Built-in buffer amplifier is monitoring each battery voltage. Microcomputer can adjust the offset voltage. 2)Charge / discharge current detection circuit In SBS, remaining capacity check function (Gas-gage function ) is necessary. To calculate accurate remaining capacity, microcomputer must get charge / discharge current periodically. Accurate charge / discharge current of external sense register is monitored by built-in amp. The charger/ discharge current is converted to Voltage value through the accurate sense resistor. Output gain can be controlled by Microcomputer. Off-set voltage can be set lower by external parts, therefore dynamic range of Microcomputer’s A to D converter will widen. 3) Over current detection circuit M61040 contains over current detection circuit. The discharging FET is turned off to stop discharging and it continues for the over current detection delay time (tIOV1) or longer, if the discharging current becomes equal to or higher than a specified value. It is necessary for safety of Li-ion battery pack. Delay time is set by external capacity connected to CIN. Also the voltage of CIN shows detection or NOT detection of over current. Over current detection is controlled independently by this M61040 ’s built-in hardware NOT by Microcomputer’s software control. 4) Series regulator, reference voltage M61040 contains Low drop out series regulator. Microcomputer in SB does not need any additional voltage regulator, MAX 20mA/5V. Also M61040 gives very accurate reference voltage as 4.85V for Vref voltage for Microcomputer’s A to D converter. 5) Reset circuit for Microcomputer Vreg output voltage is checked by Reset circuit of M61040. Therefore, lower voltage of Vreg issues RESET signal to stop mull-function of Microcomputer. Also, lower voltage after long time ’s left issues RESET signal to stop mull-function of Microcomputer. This function is useful for safety of long time ’s left battery. When charger is connected to SB, this circuit will check Vreg voltage, so if Vreg voltage is NOT enough high, this circuit remains Low as for RESET signal to Microcomputer.

Smart battery protection and monitoring IC M61040FP Mitsubishi Electric (4/25) 6) Power save function M61040FP contains power save function to control several supply current. The function and control method are shown as table 2. The function of battery voltage detection circuit, Charge/Discharge detection circuit, Over current detection circuit can be stopped as the need arises. Table 2 Control method Battery voltage detection circuit Charge/Discharge detection circuit Over current detection circuit Ο Ο Ο Software control (through Serial I/F) Each function can be ON/OFF separately. Enter Power Down Mode Microcomputer issues shot-down command to M61040 after microcomputer detects that battery voltage is too low. After this command, the DFOUT pin is set to \high\ and the Vin_12pin is pulled down by internal resistor to be set \low\ and series regulator are turned off. In the power down mode, the M61040 operation is impossible. And CFOUT, DFOUT and PFOUT pins are set to \high\. (In this situation, both charging and discharging are forbidden. ) At this time, supply current becomes max. 1.0 µA , so drops of battery voltage is prevented.

Smart battery protection and monitoring IC M61040FP Mitsubishi Electric (5/25) M61040FP VIN1 Control signal from I/F circuit DFOUTPFOUTCFOUTVIN12 VCC RESET Vref CS DI CK Vreg Series Regulator Regulator ON/OFF Control Reset Circuit GND level in discharging Serial to Parallel conversion circuit Figure1. Function after detecting over-discharge Resume from Power Down Mode After entering Power Down mode, the series regulator will begin operation when charger is connected(VIN_12 pin is high). The RESET will output low to high signal when Vreg is over reset level voltage. Microcomputer will begin operation and send command to resume M61040 from Power Down mode. 7) Conditioning Circuit M61040 have a discharge circuit of each cells. It is available for drop of cell voltage for safety purpose. And to shorten the difference voltage among the cells . It can extend the battery pack life.

Smart battery protection and monitoring IC M61040FP Mitsubishi Electric (6/25) 3. Absolute Maximum Ratings Table 3 ITEM SYMBOL CONDITION RATINGS UNIT Absolute maximum rating Vabs 33 V Supply voltage Vcc 30 V Power dissipation PD 750 mW Operating temperature range Topr 1 −20 ∼ + 85 °C Storage temperature range Tstg −40 ∼ + 125 °C 4.Electrical Characteristics Table 4 (Ta=25 °C VCC=14V ,unless otherwise noted) ITEM SYMBOL CONDITION Min. Typ. Max. UNIT Circuit Supply voltage Vcc   30 V Supply current 1 Isup1 Voltage monitor ,V/R, reset ON Current monitor ON 105 200 280 µA 7 Supply current 2 Isup2 Voltage monitor ,V/R, reset ON Current monitor OFF 65 120 165 µA 7 Supply current (at Power save mode) Ips Regulator ON, Non-loading, Reset circuit ON, Others OFF 35 60 85 µA 7 TOTAL Supply current (at Power Down mode) Ipd All operation stop, VIN 12=GND   0.5 µA 7 Output voltage Vreg Iout=20mA 5.145 5.2 5.295 V 3 Input and output voltage Difference Vdif0 Iout=20mA  0.3 0.8 V 3 Linear regulation ΔVout10 VCC =6.2 ∼24V Iout=20mA  100 200 mV 3 Load regulation ΔVout20 VCC =6.2V Iout=50 µA∼20mA  30 45 mV 3 REGULATOR Input voltage VIN 0 VCC voltage   30 V Output voltage Vref Iout=200 µA 4.818 4.85 4.917 V 4 REFERENCE VOLTAGE Load stability ΔVout21 VCC =6.2V Iout=50 ∼200 µA  5 45 mV 4 Over current inhibit Detection voltage 1 Vcl VCL−0.02 0.2 VCL+ 0.02 V 8 Over current inhibit detection voltage 2 Vch Load short detection VCC 3 ×0.6 VCC VCC ×1.4 V 8 Over current inhibit detection delay time1 Tvcl CICT=0.01 µF 7 10 15 mse c 5 OVER CURRENT DETECTION Over current inhibit detection delay time 2 Tvch 150 250 350 µsec 8

Smart battery protection and monitoring IC M61040FP Mitsubishi Electric (7/25) Table 4 (Ta=25 °C VCC=14V ,unless otherwise noted) ITEM SYMBOL CONDITION Min. Typ. Max. UNIT Circuit Input Offset voltage Voff1 31 208 385 mV 5 Voltage gain 1 Gamp1 0.99 1.0 1.01 5 Output source current Isource1 150   µA 10 Output sink current Isink1 150   µA 10 BATTERY VOLTAGE DETECTION Detection voltage of battery cell Vref −Voff1 4.45   V 5,6 Input Offset voltage Voff2 Gain=200 selected 0.2 2 3.8 V 5 Voltage gain21 Gain21 38.4 40 41.6 V 5 Voltage gain22 Gain22 96 100 104 V 5 Voltage gain23 Gain23 192 200 208 V 5 Output source current Isource2 150   µA 9 CHARGE/DISCHARGE CURRENT DETECTION Output sink current Isink2 150   µA 9 DI input H voltage VDIH 3.5  Vreg V 1 DI input L voltage VDIL 0  0.5 V 1 CS input H voltage VCSH 3.5  Vreg V 1 CS input L voltage VCSL 0  0.5 V 1 CK input H voltage VCKH 3.5  Vreg V 1 INTERFACE CK input L voltage VCKL 0  0.5 V 1 Detection voltage1 Vdet − 3.045 3.25 3.475 V 2 RESET Release voltage1 Vdet + 4.16 4.2 4.27 V 2 VIN 1 resistor RINV1 4.4 12 27 KΩ 6 VIN 2 resistor RINV2 4.4 12 27 KΩ 6 VIN 3 resistor RINV3 4.4 12 27 KΩ 6 CONDITIONING CIRCUIT VIN 4 resistor RINV4 4.4 12 27 KΩ 6 THDI THCSTSCS TSDI DI CS CK Reference period Figure 3 Interface Timing

Smart battery protection and monitoring IC M61040FP Mitsubishi Electric (8/25) 5. Measurement circuit VIN 1 VIN 2 VIN 3 VIN 4 VCC GND VREG VREF RESET DI VIN 12 CK VIN 10 PFOUT DFOUT VIN 11 CFOUT CS ANALOG OUT TEST0 TEST1 M61040FP ACIN 5V14V ICKICK ICS IDI AA Circuit 1 VIN 1 VIN 2 VIN 3 VIN 4 VCC GND VREG VREF RESET DI VIN 12 CK VIN 10 PFOUT DFOUT VIN 11 CFOUT CS ANALOG OUT TEST0 TEST1 M61040FP V CIN 1MΩ V Circuit 2 VIN 1 VIN 2 VIN 3 VIN 4 VCC GND VREG VREF RESET DI VIN 12 CK VIN 10 PFOUT DFOUT VIN 11 CFOUT CS ANALOG OUT TEST0 TEST1 M61040FP CIN 4.7uF ¯VV Circuit 3 Figure 4-1

Smart battery protection and monitoring IC M61040FP Mitsubishi Electric (9/25) VIN 1 VIN 2 VIN 3 VIN 4 VCC GND VREG VREF RESET DI VIN 12 CK VIN 10 PFOUT DFOUT VIN 11 CFOUT CS ANALOG OUT TEST0 TEST1 M61040FP CIN 4.7uF Circuit 4 VIN 1 VIN 2 VIN 3 VIN 4 VCC GND VREG VREF RESET DI VIN 12 CK VIN 10 PFOUT DFOUT VIN 11 CFOUT CS ANALOG OUT TEST0 TEST1 M61040FP CIN 4.7uF Data Input 0.5V↔ 3.5V V V Circuit 5 VIN 1 VIN 2 VIN 3 VIN 4 VCC GND VREG VREF RESET DI VIN 12 CK VIN 10 PFOUT DFOUT VIN 11 CFOUT CS ANALOG OUT TEST1 TEST2 M61040FP CIN A Data Input 0.5V↔ 3.5V A A A 4.7uF Circuit 6 Figure 4-2

Smart battery protection and monitoring IC M61040FP Mitsubishi Electric (10/25) VIN 1 VIN 2 VIN 3 VIN 4 VCC GND VREG VREF RESET DI VIN 12 CK VIN 10 PFOUT DFOUT VIN 11 CFOUT CS ANALOG OUT TEST1 TEST2 M61040FP CIN A Data Input 0V ↔ 5V Ipd, Ips, Isup2, Isup1 Measuring Ipd: ON Except above : OFF Measuring Ipd: ON Except above : OFF Circuit 7 VIN 1 VIN 2 VIN 3 VIN 4 VCC GND VREG VREF RESET DI VIN 12 CK VIN 10 PFOUT DFOUT VIN 11 CFOUT CS ANALOG OUT TEST0 TEST1 M61040FP CIN V 4.7uF V14V Circuit 8 VIN 1 VIN 2 VIN 3 VIN 4 VCC GND VREG VREF RESET DI VIN 12 CK VIN 10 PFOUT DFOUT VIN 11 CFOUT CS ANALOG OUT TEST1 TEST2 M61040FP CIN A Data Input 0.5V↔ 3.5V 4.7uF Isink Isource 14V Circuit 9 Figure 4-3

Smart battery protection and monitoring IC M61040FP Mitsubishi Electric (11/25) VIN 1 VIN 2 VIN 3 VIN 4 VCC GND VREG VREF RESET DI VIN 12 CK VIN 10 PFOUT DFOUT VIN 11 CFOUT CS ANALOG OUT TEST1 TEST2 M61040FP CIN A Data Input 0.5V↔ 3.5V 4.7uFV1 Isink Isource Circuit 10 Figure 4-4

  1. Block diagram description

The M61040 battery voltage detection circuit is shown in figure 5. This circuit is composed of switch, buffer amplifier, reference voltage section and logic circuit. Microcomputer selects detecting voltage before logic circuit controls the connection of switches. out pin. Besides offset voltage can be output. In Power Down mode, supply current in this block is close to zero because all switches are off. Regard 50µs as the standard of settling time by voltage change in this block. Figure 5. Battery voltage detection circuit

  1. This circuit is composed of comparator,

reference voltage section and breeder resistor. when Vcc voltage goes down abnormally. discharge to a select voltage. sells discharge at the same time. Figure 10. Reset circuit

6 Bit shift resistor

Figure 13. Serial to parallel timing chart

Smart battery protection and monitoring IC M61040FP Mitsubishi Electric (17/25) 9. Data Timing Table 5. ADDRESS DATA ESTABLISHMENT DATA D5 D4 D3 D2 D1 D0

CONTENTS

Reset 0 0 0    Battery voltage output 0 0 1    Refer to table 6. Offset adjustment 0 1 0    Refer to table 7. Charge/discharge current detection 0 1 1    Refer to table 8. FET control 1 0 0    Refer to table 9. Multiplexer select 1 0 1    Refer to table 10. Conditioning circuit 1 1 0    Refer to table 11. Regulator Over current control 1 1 1    Refer to table 12. Table 6 Battery voltage output D2 D1 D0 OUTPUT VOLTAGE DETAIL 0 0 0 V1 0 0 1 V2 0 1 0 V3 0 1 1 V4 1 0 0 Connect to VIN_2 Offset voltage output 1 0 1 Connect to VIN_3 Offset voltage output 1 1 0 Connect to VIN_4 Offset voltage output 1 1 1 Connect to VIN_10 Offset voltage output

  • V1 battery voltage output when system reset Table 7 Offset voltage control section of discharge current monitor amplifier OUTPUT D2 D1 D0 Offset voltage value 0 0 0 No offset (0V) 0 0 1 1V 0 1 0 2.1V 0 1 1 3.1V 1 0 0 3.7V 1 0 1 1V 1 1 0 1V 1 1 1 1V
  • No offset voltage when system reset

Smart battery protection and monitoring IC M61040FP Mitsubishi Electric (18/25) Table 8 Charge and discharge current detection D2 D1 D0 MODE OUTPUT 0 0 0 AMP stop, resistor open AMP Operation stop, Current save 0 0 1 gain x40 output 0 1 0 gain x100 output 0 1 1 gain x200 output 1 0 0 AMP stop, resistor open AMP Operation stop, Current save 1 0 1 Offset output (x40) 1 1 0 Offset output (x100) 1 1 1 Offset output (x200) sAmplifier operation is stopped when system reset Table 9 FET regulator control FET CONNECTION TERMINAL D2 D1 D0 CFOUT terminal DFOUT terminal PFOUT terminal 0 0 0 High High High 0 0 1 High High Low 0 1 0 High Low High 0 1 1 High Low Low 1 0 0 Low High High 1 0 1 Low High Low 1 1 0 Low Low High 1 1 1 Low Low Low sCFOUT, DFOUT and PFOUT are high when system reset (Over current detection is disable when DFOUT is high) Table. 10 Multiplexer control D2 D1 D0 OUTPUT 0 0 0 open output (floating) select 0 0 1 open output (floating) select 0 1 0 open output (floating) select 0 1 1 open output (floating) select 1 0 0 Charge current output select 1 0 1 Discharge current output select 1 1 0 Battery voltage output select 1 1 1 GND output select s Multiplexer output is floating when system reset

Smart battery protection and monitoring IC M61040FP Mitsubishi Electric (19/25) Table.11 Conditioning Circuit D2 D1 D0 OUTPUT 0 0 0 OPEN 0 0 1 V1 Conditioning (Short VIN_1 and VIN_2) 0 1 0 V2 Conditioning (Short VIN_2 and VIN_3) 0 1 1 V3 Conditioning (Short VIN_3 and VIN_4) 1 0 0 V4 Conditioning (Short VIN_4 and GND) 1 0 1 V1 ~ V4 Conditioning (Discharge All cells) 1 1 0 OPEN 1 1 1 OPEN sConditioning circuit is floating when system reset Table.12 Regulator, Over Current detection control OUTPUT D2 D1 D0 Regulator Over Current detection circuit 0 0 0 ON ON 0 0 1 OFF(GND Output) ∗1 ∗1 0 1 0 ON Capacity Delay terminal L fix 0 1 1 ON Capacity Delay terminal H fix 1 0 0 Don′t Care Don′t Care 1 0 1 Don′t Care Don′t Care 1 1 0 Don′t Care Don′t Care 1 1 1 Don′t Care Don′t Care s The regulator output is enable when system reset ∗1 All functions of M61040 are stooped. But if the charger is connected then M61040 will not enter power down mode.

Smart battery protection and monitoring IC M61040FP Mitsubishi Electric (20/25) 10. Timing chart 10-1. Discharge sequence Vreg RESET −0.15 −0.1 −0.05 0.05 0.1 0.15 VIN 11(V) Battery voltage(V) CFOUT(V) PFOUT(V) DFOUT(V) Supply Voltage(V) Analog out(V) From low voltage (Vbat1,Vbat2,Vbat3,Vbat4) Charging Discharging Charge Stop Charge Period Charge Start Pre-charge Start Pre-charge stop Charge Start VDDpin VIN_12pin VIN_1pin Pre-charge current Monitor Gain 200 Gain 40 Charge current Monitor Bat1 Monitor Bat2 Monitor Bat3 Monitor Bat4 Monitor Off in initializing Command from Microcomputer Command from Microcomputer Command from Microcomputer Command from Microcomputer Off in initializing Off in initializing Microcomputer starts operations. RESET Charger connected Vreg Vbat4 reaches the over-charge voltage. Command from Microcomputer ∗Testing in constant voltage Fig.14

Smart battery protection and monitoring IC M61040FP Mitsubishi Electric (21/25) 10-2. Discharge sequence −0.15 −0.1 −0.05 0.05 0.1 0.15 VIN 11(V) Battery Voltage(V) CFOUT(V) PFOUT(V) DFOUT(V) Supply Voltage(V) Vreg RESET Analog out(V) From high voiltage (Vbat1,Vbat2,Vbat3,Vbat4) Discharge Charge Discharge Period Discharge Start Discharge stop VDDpin VIN 12pin: VIN_1pin VregRESET Discharge current Monitor Gain 200 Gain 40 Bat1 MonitorBat2 Monitor Bat3 Monitor Bat4 Monitor Self discharge period Discharge Stop System stop Command from Microcomputer Command from Microcomputer Vbat4 reaches the over-discharge voltage. Command from Microcomputer Command from Microcomputer Command from Microcomputer Off in power-down mode Command from Microcomputer Pulled down to GND in discharge forbidden Fig.15

Smart battery protection and monitoring IC M61040FP Mitsubishi Electric (22/25) 10-3. Over current detection sequence −0.4 −0.3 −0.2 −0.1 0.1 0.2 0.3 0.4 VIN 11(V) Battery Voltage(V) CFOUT(V) PFOUT(V) DFOUT(V) Supply Voltage(V) Vreg RESET Analog out(V) Vbat1=Vbat2=Vbat3=Vbat4 Rash Current Generation Discharge Charge Rash Current Generation Discharge Stop Discharge stop Discharge Stop VDD pin VIN_12 pin VIN_1pin VCCRESET Discharge current Monitor Gain 40 Over-current Generation Load Short Over-current Generation Load Short Discharge Stop Discharge Stop Discharge Stop Fig.16

Smart battery protection and monitoring IC M61040FP Mitsubishi Electric (23/25) 11. Application circuit M37515 2nd Protect M61040FP VIN 3VIN 3 GND VIN 2 RIN3 RIN2 RIN4 CIN4 CIN3 CIN2 CIN1 RIN1 VIN 2 Vcc + terminal PFOUTCFOUT DFOUT Vref VREGVDD VREF VIN 12 RSENCE VIN 11 VIN 10 COUT VIN 1 RPF1 RCF1RIN12 RPF3 CFET PFET DFET RPF2D2 RRESET CRESETCREG CVCC VCC VIN 1 VIN 4VIN 4ANALOG OUT AD IN2 AD IN1 CIN11 RIN11 CICT CIN RESET RESET CK RCS RCK RDI DI CS AGNDDGND - terminal GND Battery 4 Battery 3 Battery 2 Battery 1 CT CK DI CS RCF2 CREF Fig.17

Smart battery protection and monitoring IC M61040FP Mitsubishi Electric (24/25) Table.13 Fixed Number Symbol Components Purpose Recommend min. max. N.B. D1 Diode Supply voltage    Please take care the maximum power dissipation. D2 Diode Supply voltage    Please take care the maximum power dissipation. DFET Pch MOSFET Discharge control     CFET Pch MOSFET Charge control     PFET Nch MOSFET Precharge control     RCF1 Resistor Pull down resistor 1MΩ 100kΩ 3MΩ  RCF2 Resistor Current limit 100kΩ  1MΩ  RPF1 Resistor Pull down resistor 1MΩ 100kΩ 3MΩ  RPF2 Resistor Precharge current control 1kΩ    RPF3 Resistor Current limit 100kΩ  1MΩ  RIN1 Resistor Measure for ESD 10Ω  1kΩ CIN1 Capacitor Measure for ripples of power supply 0.22µF  1.0µF  RIN2 Resistor Measure for ESD 1kΩ  10kΩ CIN2 Capacitor Measure for ripples of power supply 0.22µF  1.0µF  RIN3 Resistor Measure for ESD 1kΩ  10kΩ CIN3 Capacitor Measure for ripples of power supply 0.22µF  1.0µF ∗2)Please set up same value as RIN2,CIN2 RIN4 Resistor Measure for ESD 1kΩ  10kΩ CIN4 Capacitor Measure for ripples of power supply 0.22µF  1.0µF ∗2)Please set up same value as RIN2,CIN2 CICT Capacitor Set up delay time 0.01µF  0.47µF  RIN12 Resistor Measure for ESD 10kΩ 300Ω 200kΩ  CVCC Capacitor Measure for ripples of power supply 0.22µF    RSENCE Sensing resistor Charge/discharge current monitor 20mΩ    RIN11 Resistor Measure for ripples of power supply 100Ω  1kΩ CIN11 Capacitor Measure for ripples of power supply 0.1µF  1.0µF CREG Capacitor Eliminate the voltage noise 4.7µF 0.47µF   CREF Capacitor Eliminate the voltage noise 4.7µF    RRESET Resistor Set up delay time 47KΩ 10kΩ 3MΩ CRSET Capacitor Set up delay time 0.1µF   ∗3)It is necessary that you adjust a delay time for MCU. RCK Resistor Pull down resistor  100kΩ   RCS Resistor Pull down resistor  100kΩ   RDI Resistor Pull down resistor  100kΩ  

Smart battery protection and monitoring IC M61040FP Mitsubishi Electric (25/25) 12. Package dimensions 6.6 ±0.2 4.4 ±0.2 6.4 ±0.3 0.17 ±0.05 0.5 ±0.2 0.65 0.2 ±0.1 Unit :mm 1 10 0∼0.1 1.00 ±0.05 1.1max. Figure.18