SLUSEK7 September   2024 BQ25773

PRODUCTION DATA  

  1.   1
  2. 1 Features
  3. 2 Applications
  4. 3 Description
  5. 4 Device Comparison Table
  6. 5 Pin Configuration and Functions
  7. 6 Specifications
    1. 6.1 Absolute Maximum Ratings
    2. 6.2 ESD Ratings
    3. 6.3 Recommended Operating Conditions
    4. 6.4 Thermal Information
    5. 6.5 Electrical Characteristics
    6. 6.6 Timing Requirements
    7. 6.7 Typical Characteristics BQ2577X
  8. 7 Detailed Description
    1. 7.1 Overview
    2. 7.2 Functional Block Diagram
    3. 7.3 Feature Description
      1. 7.3.1  Power-Up Sequence
      2. 7.3.2  MODE Pin Detection
      3. 7.3.3  REGN Regulator (REGN LDO)
      4. 7.3.4  Independent Comparator Function
      5. 7.3.5  Battery Charging Management
        1. 7.3.5.1 Autonomous Charging Cycle
        2. 7.3.5.2 Battery Charging Profile
        3. 7.3.5.3 Charging Termination
        4. 7.3.5.4 Charging Safety Timer
      6. 7.3.6  Temperature Regulation (TREG)
      7. 7.3.7  Vmin Active Protection (VAP) When Battery Only Mode
      8. 7.3.8  Two Level Battery Discharge Current Limit
      9. 7.3.9  Fast Role Swap Feature
      10. 7.3.10 CHRG_OK Indicator
      11. 7.3.11 Input and Charge Current Sensing
      12. 7.3.12 Input Current and Voltage Limit Setup
      13. 7.3.13 Battery Cell Configuration
      14. 7.3.14 Device HIZ State
      15. 7.3.15 USB On-The-Go (OTG)
      16. 7.3.16 Quasi Dual Phase Converter Operation
      17. 7.3.17 Continuous Conduction Mode (CCM)
      18. 7.3.18 Pulse Frequency Modulation (PFM)
      19. 7.3.19 Switching Frequency and Dithering Feature
      20. 7.3.20 Current and Power Monitor
        1. 7.3.20.1 High-Accuracy Current Sense Amplifier (IADPT and IBAT)
        2. 7.3.20.2 High-Accuracy Power Sense Amplifier (PSYS)
      21. 7.3.21 Input Source Dynamic Power Management
      22. 7.3.22 Integrated 16-Bit ADC for Monitoring
      23. 7.3.23 Input Current Optimizer (ICO)
      24. 7.3.24 Two-Level Adapter Current Limit (Peak Power Mode)
      25. 7.3.25 Processor Hot Indication
        1. 7.3.25.1 PROCHOT During Low Power Mode
        2. 7.3.25.2 PROCHOT Status
      26. 7.3.26 Device Protection
        1. 7.3.26.1  Watchdog Timer (WD)
        2. 7.3.26.2  Input Overvoltage Protection (ACOV)
        3. 7.3.26.3  Input Overcurrent Protection (ACOC)
        4. 7.3.26.4  System Overvoltage Protection (SYSOVP)
        5. 7.3.26.5  Battery Overvoltage Protection (BATOVP)
        6. 7.3.26.6  Battery Charge Overcurrent Protection (BATCOC)
        7. 7.3.26.7  Battery Discharge Overcurrent Protection (BATDOC)
        8. 7.3.26.8  BATFET Charge Current Clamp Protection under LDO Regulation Mode
        9. 7.3.26.9  Sleep Comparator Protection Between VBUS and ACP_A (SC_VBUSACP)
        10. 7.3.26.10 High Duty Buck Exit Comparator Protection (HDBCP)
        11. 7.3.26.11 REGN Power Good Protection (REGN_PG)
        12. 7.3.26.12 System Under Voltage Lockout (VSYS_UVP) and Hiccup Mode
        13. 7.3.26.13 OTG Mode Over Voltage Protection (OTG_OVP)
        14. 7.3.26.14 OTG Mode Under Voltage Protection (OTG_UVP)
        15. 7.3.26.15 Thermal Shutdown (TSHUT)
    4. 7.4 Device Functional Modes
      1. 7.4.1 Forward Mode
        1. 7.4.1.1 System Voltage Regulation with Narrow VDC Architecture
        2. 7.4.1.2 Battery Charging
      2. 7.4.2 USB On-The-Go Mode
      3. 7.4.3 Pass Through Mode (PTM)-Patented Technology
      4. 7.4.4 Learn Mode
    5. 7.5 Programming
      1. 7.5.1 I2C Serial Interface
        1. 7.5.1.1 Timing Diagrams
        2. 7.5.1.2 Data Validity
        3. 7.5.1.3 START and STOP Conditions
        4. 7.5.1.4 Byte Format
        5. 7.5.1.5 Acknowledge (ACK) and Not Acknowledge (NACK)
        6. 7.5.1.6 Target Address and Data Direction Bit
        7. 7.5.1.7 Single Read and Write
        8. 7.5.1.8 Multi-Read and Multi-Write
        9. 7.5.1.9 Write 2-Byte I2C Commands
    6. 7.6 BQ25773 Registers
  9. 8 Application and Implementation
    1. 8.1 Application Information
    2. 8.2 Typical Application
      1. 8.2.1 Design Requirements
      2. 8.2.2 Detailed Design Procedure
        1. 8.2.2.1 Input Snubber and Filter for Voltage Spike Damping
        2. 8.2.2.2 ACP-ACN Input Filter
        3. 8.2.2.3 Inductor Selection
        4. 8.2.2.4 Input Capacitor
        5. 8.2.2.5 Output Capacitor
        6. 8.2.2.6 Power MOSFETs Selection
  10. 9 Power Supply Recommendations
  11. 10Layout
    1. 10.1 Layout Guidelines
    2. 10.2 Layout Example
      1. 10.2.1 Layout Example Reference Top View
  12. 11Device and Documentation Support
    1. 11.1 Device Support
      1. 11.1.1 Third-Party Products Disclaimer
    2. 11.2 Documentation Support
      1. 11.2.1 Related Documentation
    3. 11.3 Receiving Notification of Documentation Updates
    4. 11.4 Support Resources
    5. 11.5 Trademarks
    6. 11.6 Electrostatic Discharge Caution
    7. 11.7 Glossary
  13. 12Revision History
  14. 13Mechanical, Packaging, and Orderable Information

Package Options

Refer to the PDF data sheet for device specific package drawings

Mechanical Data (Package|Pins)
  • REE|36
Thermal pad, mechanical data (Package|Pins)
Orderable Information

6.5 Electrical Characteristics

VVBUS_UVLOZ < VVBUS < VACOV_FALL , TJ = -40°C to +125°C, and TJ = 25°C for typical values (unless otherwise noted)
PARAMETER TEST CONDITIONS MIN TYP MAX UNIT
VINPUT_OP Input voltage operating range 3.5 40.00 V
MAX SYSTEM VOLTAGE REGULATION
VSYSMAX_RNG System Voltage Regulation, measured on VSYS (charge disabled) 5.16 23.16 V
VSYSMAX_ACC System voltage regulation accuracy (charge disabled) CHARGE_VOLTAGE() = 0x1482 (21.000 V) VSRN + 200 mV V
–0.6% 0.6%
CHARGE_VOLTAGE() = 0x1068H (16.800 V) VSRN + 200 mV V
–0.6% 0.6%
CHARGE_VOLTAGE() = 0x0C4EH (12.600 V) VSRN + 200 mV V
–0.6% 0.6%
CHARGE_VOLTAGE() = 0x0834H (8.400 V) VSRN + 200 mV V
–1% 1%
MINIMUM SYSTEM VOLTAGE REGULATION
VSYSMIN_RNG System Voltage Regulation, measured on VSYS 5.00 23.00 V
VSYSMIN_REG_ACC Minimum System Voltage Regulation Accuracy (VBAT below REG0x3E() setting) VSYS_MIN() = 0x0C08H 15.40 V
–0.9% 0.9%
VSYS_MIN() = 0x099CH 12.30 V
–0.9% 0.9%
VSYS_MIN() = 0x0730H 9.20 V
–1.3% 1.1%
VSYS_MIN() = 0x0528H 6.60 V
–1.5% 1.50%
CHARGE VOLTAGE REGULATION
VBAT_RNG Battery voltage regulation 5.00 23.00 V
VBAT_REG_ACC Battery voltage regulation accuracy (charge enable) (0°C to 85°C) CHARGE_VOLTAGE() = 0x1482H 21.0 V
–0.5% 0.6%
CHARGE_VOLTAGE()= 0x1068H 16.8 V
–0.5% 0.6%
CHARGE_VOLTAGE() = 0x0C4EH 12.6 V
–0.5% 0.6%
CHARGE_VOLTAGE() = 0x0834H 8.4 V
–0.5% 0.6%
CHARGE CURRENT REGULATION IN FAST CHARGE
VIREG_CHG_RNG Charge current regulation differential voltage range with 5-mΩ sensing resistor VIREG_CHG = VSRP – VSRN 128 16320 mA
ICHRG_REG_ACC Charge current regulation accuracy 5-mΩ sensing resistor, VBAT above VSYS_MIN() setting (0°C to 85°C) CHARGE_CURRENT() = 0x600H, VBAT=7.4V/11.1V/14.8V/18.5V 12288 mA
–1.5% 1.5%
CHARGE_CURRENT() = 0x400H, VBAT=7.4V/11.1V/14.8V/18.5V 8192 mA
–2.0% 2.0%
CHARGE_CURRENT() = 0x200H, VBAT=7.4V/11.1V/14.8V/18.5V 4096 mA
–3.0% 3.0%
CHARGE_CURRENT() = 0x100H, VBAT=7.4V/11.1V/14.8V/18.5V 2048 mA
–5.0% 5.0%
CHARGE_CURRENT() = 0x080H VBAT=7.4V/11.1V/14.8V/18.5V 1024 mA
–8.0% 8.0%
CHARGE CURRENT REGULATION IN PRE-CHARGE(LDO MODE)
VPRECHG_RANGE Pre-charge Current Range 5-mΩ SRP/SRN series resistor, VBAT below REG0x3E() setting (0°C to 85°C) VIREG_PRECHG = VSRP - VSRN, IPRECHG() = 0x10H~0xFCH 128 2016 mA
IPRECHRG_REG_ACC Pre-charge current regulation accuracy with 5-mΩ SRP/SRN series resistor, VBAT below VSYS_MIN() setting (0°C to 85°C) RSNS_RSR=0b IPRECHG() = 0x80H,CHARGE_CURRENT() = 0x100H 1024 mA
–10.0% 10.0%
IPRECHG() = 0x40H,CHARGE_CURRENT() = 0x100H 512 mA
–15.0% 15.0%
IPRECHG() = 0x20H,CHARGE_CURRENT() = 0x100H 256 mA
–20.0% 20.0%
IPRECHG() = 0x10H,CHARGE_CURRENT() = 0x100H 128 mA
–30.0% 30.0%
TERMINATION CURRENT AND RECHARGE(AUTONOMOUS CHARGING)
VTERM_RANGE Termination Current Range 5-mΩ SRP/SRN series resistor, VBAT below REG0x3E() setting (0°C to 85°C) VIREG_TERM = VSRP - VSRN, ITERM() = 0x10H~0xFCH 128 2016 mA
VRECHG Battery automatic recharge threshold(0°C to 85°C) VSRN falling threshold as negative offset based on CHARGE_VOLTAGE()=12.6V, VRECHG()=1111b 800.0 mV
VSRN falling threshold as negative offset based on CHARGE_VOLTAGE()=12.6V,VRECHG()=0111b 400.0 mV
VSRN falling threshold as negative offset based on CHARGE_VOLTAGE()=12.6V,VRECHG()=0011b 200.0 mV
VSRN falling threshold as negative offset based on CHARGE_VOLTAGE()=12.6V,VRECHG()=0001b 100.0 mV
INPUT CURRENT REGULATION
VIREG_DPM_RNG Input current regulation  range with 10-mΩ ACP/ACN series resistor VIREG_DPM = VACP_A – VACN_A +VACP_B - VACN_B 400 8200 mA
IIIN_DPM_REG_ACC Input current regulation accuracy with 10-mΩ ACP/ACN series resistor IIN_HOST() = 0x0C4H 4750 4900 5000 mA
IIN_HOST() = 0x074H 2800 2900 3000 mA
IIN_HOST() = 0x024H 800 900 1000 mA
IIN_HOST() = 0x010H 300 400 510 mA
VIREG_DPM_RNG_ILIM Voltage range for input current regulation (ILIM_HIZ Pin) 1.15 4.0 V
IIIN_DPM_REG_ACC_ILIM Input Current Regulation Accuracy on ILIM_HIZ pin VILIM_HIZ = 1 V + 40 × IIIN_DPM × RAC, with 10-mΩ ACP/ACN series resistor VILIM_HIZ = 3.0 V 4800 5000 5200 mA
VILIM_HIZ = 2.2 V 2800 3000 3200 mA
VILIM_HIZ = 1.4 V 800 1000 1200 mA
VILIM_HIZ = 1.2 V 300 500 700 mA
ILEAK_ILIM ILIM_HIZ pin leakage current –1 1 µA
INPUT VOLTAGE REGULATION
VVINPM_REG_ACC Input voltage regulation accuracy VINDPM()=0x384H 18000 mV
–1% 1%
VINDPM()=0x0E0H 4480 mV
–3% 3%
OTG CURRENT REGULATION
VIOTG_REG_RNG OTG output current regulation range with 10-mΩ ACP/ACN series resistor VIOTG_REG = VACP_A – VACN_A +VACP_B - VACN_B 100 3000 mA
IOTG_ACC OTG output current regulation accuracy with 25-mA LSB and 10-mΩ ACP/ACN series resistor OTG_Current() = 0x078H 2850 3000 3150 mA
OTG_Current() = 0x03CH 1350 1500 1650 mA
OTG_Current() = 0x014H 350 500 650 mA
OTG VOLTAGE REGULATION
VOTG_REG_RNG OTG voltage regulation range Voltage on VBUS 3 5 V
VOTG_REG_ACC OTG voltage regulation accuracy OTG_Voltage()=0x0FAH 5.00 V
VOTG_REG_ACC OTG voltage regulation accuracy –3% 3%
REGN REGULATOR
VREGN_REG REGN regulator voltage VBUS = 10 V, REGN_EXT=0b 4.80 5.00 5.10 V
VREGN_REG_EXT REGN regulator voltage with external over drive VBUS = 10 V, REGN_EXT=1b 4.35 4.50 4.65 V
IREGN_LIM_CHARGING REGN current limit when converter is enabled VBUS = 10 V, force VREGN =4 V 150.00 191.00 mA
IREGN_LIM_LWPWR REGN current limit when in battery only low power mode VBUS = 0 V, VVBAT = 18 V, force VREGN =4 V, EN_LWPWR=1b, EN_REGN_LWPWR=1b, 3.00 12.00 mA
VREGN_OK_FALL REGN regulator voltage valid falling threshold 2.8 3.20 V
VREGN_OK_RISE REGN regulator voltage valid rising threshold 3.10 3.40 3.60 V
VREGN_OV_RISE REGN regulator voltage over voltage rising threshold 5.30 5.50 5.60 V
VREGN_OV_FALL REGN regulator voltage over voltage falling threshold 5.10 5.30 5.50 V
QUIESCENT CURRENT
ISD_BAT System powered by battery. ISRN + ISRP + ISW2 + IBTST2 + ISW1_A&B + IBTST1_A&B + IACP_A&B + IACN_A&B + IVBUS + IVSYS VBAT = 18 V, in low power mode(EN_LWPWR = 1b), Comparator off(EN_LWPWR_CMP=0b, CMP_EN=1b), BATDRV is Off (BATFET_ENZ=1b), REGN is off(EN_REGN_LWPWR=0b), PSYS is off(PSYS_CONFIG=11b), Continuous ADC is off(ADC_RATE=1b) 12.0 20.0 µA
IQ_BAT1 System powered by battery. ISRN + ISRP + ISW2 + IBTST2 + ISW1_A&B + IBTST1_A&B + IACP_A&B + IACN_A&B + IVBUS + IVSYS VBAT = 18 V, in low power mode(EN_LWPWR = 1b), Comparator off(EN_LWPWR_CMP=0b), BATDRV is On (BATFET_ENZ=0b, CMP_EN=1b), REGN is off(EN_REGN_LWPWR=0b), PSYS is off(PSYS_CONFIG=11b), IBAT is off(EN_IBAT=0b), Continuous ADC is off(ADC_RATE=1b) 20 30 µA
IQ_BAT2 System powered by battery. ISRN + ISRP + ISW2 + IBTST2 + ISW1_A&B + IBTST1_A&B + IACP_A&B + IACN_A&B + IVBUS + IVSYS VBAT = 18 V, in low power mode(EN_LWPWR = 1b), Comparator on(EN_LWPWR_CMP=1b, CMP_EN=1b), BATDRV is On (BATFET_ENZ=0b), REGN is off (EN_REGN_LWPWR=0b), PSYS is off(PSYS_CONFIG=11b), IBAT is off(EN_IBAT=0b), Continuous ADC is off(ADC_RATE=1b) 30 45 µA
IQ_BAT3 System powered by battery. ISRN + ISRP + ISW2 + IBTST2 + ISW1_A&B + IBTST1_A&B + IACP_A&B + IACN_A&B + IVBUS + IVSYS VBAT = 18 V, in low power mode(EN_LWPWR = 1b, CMP_EN=1b), Comparator on(EN_LWPWR_CMP=1b),BATDRV is On (BATFET_ENZ=0b), REGN is on scaled down to 5mA (EN_REGN_LWPWR=1b), PSYS is off(PSYS_CONFIG=11b), IBAT is off(EN_IBAT=0b), Continuous ADC is off(ADC_RATE=1b) 110 150 µA
IQ_BAT4 System powered by battery. ISRN + ISRP + ISW2 + IBTST2 + ISW1_A&B + IBTST1_A&B + IACP_A&B + IACN_A&B + IVBUS + IVSYS VBAT = 18 V, in performance mode(EN_LWPWR = 0b, CMP_EN=1b), Comparator on(EN_LWPWR_CMP=1b),BATDRV is On (BATFET_ENZ=0b), REGN is on in full power,PSYS is on(PSYS_CONFIG=00b), IBAT is on(EN_IBAT=1b), Continuous ADC is off(ADC_RATE=1b) 800 1000 µA
IQ_BAT5 System powered by battery. ISRN + ISRP + ISW2 + IBTST2 + ISW1_A&B + IBTST1_A&B + IACP_A&B + IACN_A&B + IVBUS + IVSYS VBAT = 18 V, in performance mode(EN_LWPWR = 0b), Comparator on(EN_LWPWR_CMP=1b, CMP_EN=1b),BATDRV is On (BATFET_ENZ=0b), REGN is on in full power,PSYS is On(PSYS_CONFIG=00b), IBAT is on(EN_IBAT=1b),Continuous ADC is on(ADC_RATE=0b, ADC_EN=1b, enable at least 1 channel EN_ADC_VBAT=1b) 950 1100 µA
IQ_HIZ Converter under HIZ mode and system powered by battery. ISRN + ISRP + ISW2 + IBTST2 + ISW1_A&B + IBTST1_A&B + IACP_A&B + IACN_A&B + IVBUS + IVSYS VIN = 28 V, VBAT = 12.6 V, 3s, EN_HIZ=1b; in HIZ mode 1000 1150 µA
IQ_VAC Input current in buck mode, no load, IVBUS + IACP + IACN + IVSYS + ISRP + ISRN + ISW1 + IBTST + ISW2 + IBTST2 VIN = 28 V, VBAT = 12.6 V, 3s, EN_LEARN=1b, no switching 1000 1150 mA
VIN = 28 V, VBAT = 12.6 V, 3s, EN_OOA = 0b; switching at zero load 2.50 mA
CURRENT SENSE AMPLIFIER
VIADPT_CLAMP IADPT output clamp voltage 3.1 3.2 3.3 V
IIADPT IADPT output current 1 2.5 mA
AIADPT Input current sensing gain V(IADPT) / (VACP_A-VACN_A+VACP_B-VACN_B), IADPT_GAIN = 0 20 V/V
V(IADPT) / (VACP_A-VACN_A+VACP_B-VACN_B), IADPT_GAIN = 1 40 V/V
VIADPT_ACC Input current monitor accuracy VACP_A-VACN_A+VACP_B-VACN_B = 61.44 mV, IADPT_GAIN = 0 –2.5% 1.5%
VACP_A-VACN_A+VACP_B-VACN_B = 40.96 mV, IADPT_GAIN = 0 –3.5% 2%
IADPT_GAIN = 0VACP_A-VACN_A+VACP_B-VACN_B = 20.48 mV, IADPT_GAIN = 0 –6% 3%
VACP_A-VACN_A+VACP_B-VACN_B =10.24 mV, IADPT_GAIN = 0 –15% 6%
VACP_A-VACN_A+VACP_B-VACN_B =5.12 mV, IADPT_GAIN = 0 –25% 10%
CIADPT_MAX Maximum capacitance at IADPT Pin 100 pF
VIBAT_CLAMP IBAT output clamp voltage 3.1 3.2 3.3 V
IIBAT IBAT output current 1 2.5 mA
AIBAT Charge and discharge current sensing gain on IBAT pin V(IBAT) / V(SRN-SRP), IBAT_GAIN = 0, 8 V/V
V(IBAT) / V(SRN-SRP), IBAT_GAIN = 1, 64 V/V
IIBAT_CHG_ACC Charge and discharge current monitor accuracy on IBAT pin VSRN-VSRP= 61.44 mV, IBAT_GAIN=0b –1.5% 2%
VSRN-VSRP= 40.96 mV, IBAT_GAIN=0b –2% 3%
VSRN-VSRP= 20.48 mV, IBAT_GAIN=0b –3% 7%
VSRN-VSRP= 10.24 mV, IBAT_GAIN=0b –6% 13%
VSRN-VSRP= 5.12 mV, IBAT_GAIN=0b –12% 27%
CIBAT_MAX Maximum capacitance at IBAT Pin 100 pF
SYSTEM POWER SENSE AMPLIFIER
VPSYS PSYS output voltage range 0 3.3 V
IPSYS PSYS output current 0 260.00 µA
APSYS PSYS system gain I(PSYS) / (P(IN) +P(BAT)), PSYS_CONFIG =00b;PSYS_RATIO =1b 1 µA/W
VPSYS_ACC_ADPT PSYS gain accuracy (PSYS_CONFIG = 00b) Adapter only monitor system power:  VBUS= 28 V IBUS=3.6A (100W), TA = 0 to 85°C, PSYS_RATIO=1b, RAC=10mΩ, RSR=5mΩ. –3% 4.5%
VPSYS_ACC_BAT PSYS gain accuracy (PSYS_CONFIG = 00b) Battery only monitor system power:  VBAT= 11.1 V IBAT=9.1A (100W), TA = 0 to 85°C, PSYS_RATIO=1b, RAC=10mΩ, RSR=5mΩ. –3.5% 2%
VPSYS_CLAMP PSYS clamp voltage 3.1 3.3 V
INTEGRATED ANALOG TO DIGITAL CONVERSION (ADC)
ADCRES ADC Effective resolution ADC_SAMPLE[1:0]=00b 14 15 bits
ADCRES ADC Effective resolution ADC_SAMPLE[1:0]=01b 13 14 bits
ADCRES ADC Effective resolution ADC_SAMPLE[1:0]=10b 12 13 bits
ADC_VBUS ADC Input voltage reading at ADC_VBUS() register Range 0 65534 mV
LSB 2 mV
Accuracy at VIN=28V –2 2 %
ADC_IIN ADC Input voltage reading at ADC_IIN() register Range –16383.5 16383.5 mA
LSB based on 10mohm RAC 0.5 mA
Accuracy at VACP_A-VACN_A+VACP_B-VACN_B = 50 mV –4 2.5 %
ADC_VSYS ADC Input voltage reading at ADC_VSYS() register Range 0 65534 mV
LSB 2 mV
Accuracy at VSYS=9V –2 2 %
ADC_VBAT ADC Input voltage reading at ADC_VBAT() register Range 0 32767 mV
LSB 1 mV
Accuracy at VBAT=9V –2 1 %
ADC_PSYS ADC Input voltage reading at ADC_PSYS() register Range 0 4095 mV
LSB 1 mV
Accuracy at V_PSYS=2V –2 2 %
ADC_CMPIN_TR ADC Input voltage reading at ADC_CMPIN_TR() register Range 0 4095 mV
LSB 1 mV
Accuracy at V_CMPIN_TR=2V –2 2 %
CMPIN_TR PIN Voltage under TEMPERATURE REGULATION(TREG)
VTREG CMPIN_TR pin voltage under temperature regulation 1.200 V
VTREG_ACC CMPIN_TR pin voltage accuracy under temperature regulation –2.0% 2.0%
VTREG_PP TREG PROCHOT PROFILE thereshold level 1.07 1.100 1.13 V
SLEEP COMPARATOR FOR FORWARD MODE BETWEEN VBUS and ACP_A(SC_VBUSACP)
VSC_VBUSACP_rising VBUS-ACP_A rising threshold for sleep comparator to shut down converter when Efuse/PFET is not fully on 700 850 1000 mV
VSC_VBUSACP_falling VBUS-ACP_A falling threshold for sleep comparator to recover converter swithcing after Efuse/PFET is fully on 650 800 950 mV
HIGH DUTY BUCK EXIT COMPARATOR (HDBCP)
VHDBCP_VSYS_RISE VSYS rising/ VBUS falling threshold for comparator to exit high duty buck mode by forcing HIGH_DUTY_BUCK=0b 97.2% 97.7% 98.2%
VHDBCP_HYS Hystersis when VSYS falling/VBUS rising based on 97.5%*VBUS threshold to allow writing HIGH_DUTY_BUCK bit to 1b 200.0 mV
tHDBCP_VSYS_DEG Comparator deglitch time for both rising and falling edge 15.0 us
VMIN ACTIVE PROTECTION(VAP) PROCHOT COMPARATOR
VSYS_TH1Z VAP VSYS rising threshold 1 VSYS_TH1()=001110b 6.4 6.55 6.7 V
VSYS_TH1 VAP VSYS falling threshold 1 VSYS_TH1()=001110b 6.25 6.4 6.55 V
VSYS_TH1_HYST VAP VSYS threshold 1 hysteresis 150 mV
VSYS_TH2Z VAP VSYS rising threshold 2 VSYS_TH2()=001001b 5.9 6.05 6.20 V
VSYS_TH2 VAP VSYS falling threshold 2 VSYS_TH2()=001001b 5.75 5.9 6.05 V
VSYS_TH2_HYST VAP VSYS threshold 2 hysteresis 150 mV
VBUS_VAP_THZ Convervative VAP VBUS rising threshold VBUS_VAP_TH()=0000000b 3.35 3.5 3.65 V
VBUS_VAP_TH Convervative VAP VBUS falling threshold VBUS_VAP_TH()=0000000b 3.05 3.2 3.35 V
VBUS_VAP_TH_HYST Convervative VAP VBUS threshold hysteresis 300 mV
PEAK POWER MODE LEVEL2 ADAPTER CURRENT LIMIT(ILIM2)
ILIM2_VTH Based on percentage of IINDPM(ILIM1) level ILIM2_VTH=01001b 150%
VILIM2_CEILING ILIM2  high clamp based on dual phase total input current sense voltage ACP_A -ACN_A +ACP_B -ACN_B Set IIN_HOST() to maximum, and ILIM2_VTH=11110b 240 258 275 mV
PEAK POWER MODE SYSTEM VOLTAGE SAG COMPARATOR(SYS_SAG)
VSYS_SAG VSYS undershoot comparator threshold to trigger peak power mode ILIM2 as percentage of VSYS_MIN()  EN_PKPWR_VSYS=1b 91.4% 93.25% 95.0%
VSYS_SAG_HYST VSYS undervoltage hysteresis 100 mV
VSYS UNDER VOLTAGE PROTECTION COMPARATOR(VSYS_UVP)
VSYS_UVLOZ VSYS undervoltage rising threshold VSYS rising 2.35 2.55 2.75 V
VSYS_UVLO VSYS undervoltage falling threshold VSYS falling VSYS_UVP()=000b 2.2 2.4 2.6 V
VSYS_UVLOZ VSYS undervoltage rising threshold VSYS rising 4.75 4.95 5.15 V
VSYS_UVLO VSYS undervoltage falling threshold VSYS falling VSYS_UVP()=011b 4.6 4.8 5.0 V
VSYS_UVLOZ VSYS undervoltage rising threshold VSYS rising 7.15 7.35 7.55 V
VSYS_UVLO VSYS undervoltage falling threshold VSYS falling VSYS_UVP()=110b 7.0 7.2 7.4 V
VBUS UNDER VOLTAGE LOCKOUT COMPARATOR(VBUS_UVLO)
VVBUS_UVLOZ VBUS undervoltage rising threshold VBUS rising 2.5 2.7 2.9 V
VVBUS_UVLO VBUS undervoltage falling threshold VBUS falling 2.3 2.6 2.8 V
VVBUS_CONVEN VBUS converter enable rising threshold VBUS rising 3.1 3.4 3.7 V
VVBUS_CONVENZ VBUS converter enable falling threshold VBUS falling 2.9 3.2 3.5 V
VBAT UNDER VOLTAGE LOCKOUT COMPARATOR(VBAT_UVLO)
VVBAT_UVLOZ VBAT undervoltage rising threshold VSRN rising 3.5 3.95 4.25 V
VVBAT_UVLO VBAT undervoltage falling threshold VSRN falling 3.3 3.75 4.05 V
VVBAT_UVLO_HYST VBAT undervoltage hysteresis 200 mV
VVBAT_OTGEN VBAT OTG enable rising threshold VSRN rising 4.80 5.0 5.20 V
VVBAT_OTGENZ VBAT OTG enable falling threshold VSRN falling 4.45 4.65 4.85 V
VVBAT_OTGEN_HYST VBAT OTG enable hysteresis 350 mV
VBUS UNDER VOLTAGE PROTECTION COMPARATOR (OTG MODE)
VVBUS_OTG_UV VBUS undervoltage falling threshold As percentage of OTG_VOLTAGE() setting 65% 75% 85%
VVBUS_OTG_UVZ VBUS undervoltage rising threshold hysteresis based on falling threshold 100 mV
VBUS OVER VOLTAGE PROTECTION COMPARATOR (OTG MODE)
VVBUS_OTG_OV VBUS overvoltage rising threshold As percentage of OTG_VOLTAGE() setting= 12V 110% 118% 125%
VVBUS_OTG_OVZ VBUS overvoltage falling threshold As percentage of OTG_VOLTAGE() setting= 12V 100% 105% 110%
PRE-CHARGE to FAST CHARGE COMPARATOR
VBAT_PRECHG_Z VBAT rising threshold VBAT rising as negative offset of VSYS_MIN() -150 50 200 mV
VBAT_PRECHG VBAT falling threshold VBAT falling as negative offset of VSYS_MIN() -50 150 300 mV
VBAT_PRECHG_HYST VBAT hysterisis 100 mV
TRICKLE CHARGE to PRE-CHARGE TRANSITION
VBAT_SHORT_Z VBAT short rising threshold VBAT rising 2.9 3.0 3.1 V
VBAT_SHORT VBAT short falling threshold VBAT falling 2.80 2.9 3.0 V
VBAT_SHORT_HYST VBAT short hysteresis 100.0 mV
IBAT_SHORT VBAT short trickle charge current maximum clamp 128.0 mA
INPUT OVER-VOLTAGE COMPARATOR (ACOV)
VACOV_RISE_15SPR VBUS overvoltage rising threshold for 15V SPR VBUS rising(ACOV_ADJ=00b) 19.25 20.00 20.75 V
VACOV_FALL_15SPR VBUS overvoltage falling threshold 15V SPR VBUS falling(ACOV_ADJ=00b) 18.25 19.00 19.75 V
VACOV_RISE_20SPR VBUS overvoltage rising threshold 20V SPR VBUS rising(ACOV_ADJ=01b) 26.25 27.00 27.75 V
VACOV_FALL_20SPR VBUS overvoltage falling threshold 20V SPR VBUS falling(ACOV_ADJ=01b) 25.25 26.00 26.75 V
VACOV_RISE_28EPR VBUS overvoltage rising threshold 28V EPR VBUS rising(ACOV_ADJ=10b Default) 32.25 33.00 33.75 V
VACOV_FALL_28EPR VBUS overvoltage falling threshold 28V EPR VBUS falling(ACOV_ADJ=10b Default) 31.25 32.00 32.75 V
VACOV_RISE_36EPR VBUS overvoltage rising threshold 36V EPR VBUS rising(ACOV_ADJ=11b) 40.25 41.00 41.75 V
VACOV_FALL_36EPR VBUS overvoltage falling threshold 36V EPR VBUS falling(ACOV_ADJ=11b) 39.25 40.00 40.75 V
VACOV_HYST VBUS overvoltage hysteresis 1.00 V
INPUT OVER CURRENT COMPARATOR (ACOC)
VACOC ACP to ACN rising threshold, w.r.t. ILIM2 in REG0x33[15:11] Voltage across input sense resistor rising, Reg0x31[2] = 1 170 200 230 %
VACOC_FLOOR ACOC  low clamp based on dual phase total input current sense ACP_A -ACN_A +ACP_B -ACN_B Set IIN_HOST() to minimum 46 50 54 mV
VACOC_CEILING ACOC  high clamp based on dual phase total input current sense ACP_A -ACN_A +ACP_B -ACN_B Set IIN_HOST() to maximum 174 180 184 mV
SYSTEM OVER-VOLTAGE COMPARATOR (SYSOVP)
VSYSOVP_RISE System overvoltage rising threshold to turn off converter 2 s 11.85 12.15 12.35 V
3 s 16.8 17.15 17.4 V
4 s 21.90 22.3 22.60 V
5 s 26.90 27.3 27.70 V
VSYSOVP_FALL System overvoltage falling threshold 2 s 11.6 V
3 s 16.60 V
4 s 21.7 V
5 s 26.80 V
ISYSOVP Discharge current during SYSOVP  Through VSYS pin 20 mA
BAT OVER-VOLTAGE COMPARATOR (BATOVP)
VBATOVP_RISE Overvoltage rising threshold as percentage of CHARGE_VOLTAGE() 2 s - 5 s 107.8% 108.8% 109.6%
VBATOVP_FALL Overvoltage falling threshold as percentage of CHARGE_VOLTAGE() 2 s - 5 s 104.4% 105.5% 106.5%
VBATOVP_HYST Overvoltage hysteresis as percentage of CHARGE_VOLTAGE() 2 s - 5 s 3.3%
IBATOVP Discharge current during BATOVP Through VSYS pin 20 mA
CONVERTER OVER-CURRENT COMPARATOR (OCP_SW2)
VOCP_LIMIT_SW2 Converter Over-Current Limit through Q4 VDS OCP_SW2_HIGH_RANGE=0 150 mV
OCP_SW2_HIGH_RANGE=1 260 mV
VOCP_LIMIT__SYSSHORT_SW2 Under OTG_UVP, Converter Over-Current Limit through and Q4 VDS OCP_SW2_HIGH_RANGE=0 90 mV
OCP_SW2_HIGH_RANGE=1 150 mV
CONVERTER OVER-CURRENT COMPARATOR (OCP_SW1X)
VOCP_LIMIT_SW1X_RAC Converter Over-Current Limit through RAC OCP_SW1X_HIGH_RANGE=0 150 mV
OCP_SW1X_HIGH_RANGE=1 260 mV
VOCP_LIMIT_SYSSHORT_SW1X_RAC Under SYS_UVP, Converter Over-Current Limit through RAC OCP_SW1X_HIGH_RANGE=0 90 mV
OCP_SW1X_HIGH_RANGE=1 150 mV
THERMAL SHUTDOWN COMPARATOR
TSHUT_RISE Thermal shutdown rising temperature Temperature increasing 155 °C
TSHUT_FALL Thermal shutdown falling temperature Temperature reducing 135 °C
TSHUT_HYS Thermal shutdown hysteresis 20 °C
ICRIT PROCHOT COMPARATOR
VICRIT_PRO Input current rising threshold for throttling as 10% above ILIM2_VTH() Only when ILIM2 setting is higher than 4A 104.5% 110% 117.5%
INOM PROCHOT COMPARATOR
VINOM_PRO INOM rising threshold as 10% above IIN_DPM() and EN_EXTILIM=0b Accuracy is ensured only when IIN_DPM() is 2A or higher. There is minimum clamp at  500mA. Accuracy between 500mA and 2A may be impaired. 104% 110% 117%
BATTERY DISCHARGE CURRENT LIMIT PROCHOT COMPARATOR(IDCHG_TH1 and IDCHG_TH2)
IDCHG_TH1 IDCHG threshold1 voltage across SRN and SRP pins for throttling CPU IDCHG_TH1()=010000b 47.5 mV
–3.0% 3.2%
IDCHG_DGLT1 IDCHG threshold1 deglitch time IDCHG_DEG1()=01b 1.25 sec
IDCHG_TH2 IDCHG threshold2 voltage across SRN and SRP pins IDCHG_TH1()=010000b, IDCHG_TH2()=001b 71.25 mV
–3.0% 3.2%
IDCHG_DGLT2 IDCHG threshold2 deglitch time IDCHG_DEG2()=01b 1.6 ms
INDEPENDENT COMPARATOR
VINDEP_CMP Independent comparator threshold Comparator CMPIN_TR threshold to trigger CMPOUT pulling down, Negative polarity CMP_POL=0b. 1.18 1.2 1.23 V
VINDEP_CMP_HYS Independent comparator hysteresis Comparator CMPIN_TR hysterisis threshold 100 mV
PWM OSCILLATOR AND RAMP
FSW PWM switching frequency PWM_FREQ= 0 690 770 850 kHz
FSW PWM switching frequency PWM_FREQ= 1 540 600 660 kHz
BATFET GATE DRIVER (BATDRV for NFET)
VBATDRV_ON Gate drive voltage on NMOS BATFET 4.70 5.00 5.40 V
VBATDRV_SUPPLEMENT BATFET Source-Drain voltage during ideal diode regulation under supplement mode 30.00 mV
IBATDRV_ON BATDRV on, VBATDRV=VBAT+2V 30 40 µA
IBATDRV_OFF BATDRV off, BATDRV=VBAT+2V 0.54 0.85 mA
PWM HIGH SIDE DRIVER (HIDRV1_A for Q1_A, HIDRV1_B for Q1_B)
RDS_HI_ON_Q1 High side driver (HSD) turn on resistance VBTST1 - VSW1 = 4.5 V 1.00 Ω
RDS_HI_OFF_Q1 High side driver turn off resistance VBTST1 - VSW1 = 4.5 V 0.4 0.6 Ω
VBTST1_REFRESH Bootstrap refresh comparator falling threshold voltage VBTST1 - VSW1 when low side refresh pulse is requested 3.0 3.3 3.6 V
PWM LOW SIDE DRIVER (LODRV1_A for Q2_A, LODRV1_B for Q2_B)
RDS_LO_ON_Q2 Low side driver (LSD) turn on resistance VBTST1 - VSW1 = 4.5 V 1.0 Ω
RDS_LO_OFF_Q2 Low side driver turn off resistance VBTST1 - VSW1 = 4.5 V 0.4 0.6 Ω
PWM HIGH SIDE DRIVER (HIDRV2 for Q4)
RDS_HI_ON_Q4 High side driver (HSD) turn on resistance VBTST2 - VSW2 = 4.5 V 1.50 Ω
RDS_HI_OFF_Q4 High side driver turn off resistance VBTST2 - VSW2 = 4.5 V 0.50 0.80 Ω
VBTST2_REFRESH Bootstrap refresh comparator falling threshold voltage VBTST2 - VSW2 when low side refresh pulse is requested 3.0 3.3 3.6 V
PWM LOW SIDE DRIVER (LODRV2 for Q3)
RDS_LO_ON_Q3 Low side driver (LSD) turn on resistance VBTST2 - VSW2 = 4.5 V 1.10 Ω
RDS_LO_OFF_Q3 Low side driver turn off resistance VBTST2 - VSW2 = 4.5 V 0.40 0.70 Ω
INTERNAL SOFT START During Charge Enable
SSSTEP_DAC Soft Start Step Size 8 mA
INTEGRATED BTST DIODE (D1_X)
VF_D1 Forward bias voltage IF = 20 mA at 25°C 0.8 V
INTEGRATED BTST DIODE (D2)
VF_D2 Forward bias voltage IF = 20 mA at 25°C 0.8 V
INTERFACE
LOGIC INPUT (SDA, SCL, EN_OTG)
VIN_ LO_EN_OTG Input low level for EN_OTG pin 0.8 V
VIN_ HI_EN_OTG Input high level for EN_OTG pin 1.35 V
VIN_ LO Input low level for SCL/SDA I2C (1.2V~5V VDD Pullup) 0.42 V
VIN_ HI Input high level for SCL/SDA I2C (1.2V~5V VDD Pullup) 0.8 V
LOGIC OUTPUT OPEN DRAIN SDA
VOUT_ LO_SDA Output Saturation Voltage 5 mA drain current 0.3 V
VOUT_ LEAK_SDA Leakage Current V = 5.5V –1 1 µA
LOGIC OUTPUT OPEN DRAIN CHRG_OK
VOUT_ LO_CHRG_OK Output Saturation Voltage 5 mA drain current 0.4 V
VOUT_ LEAK _CHRG_OK Leakage Current V = 5.5V –1 1 µA
LOGIC OUTPUT OPEN DRAIN CMPOUT
VOUT_ LO_CMPOUT Output Saturation Voltage 5 mA drain current 0.4 V
VOUT_ LEAK _CMPOUT Leakage Current V = 5.5V –1 1 µA
LOGIC OUTPUT OPEN DRAIN (PROCHOT)
VOUT_ LO_PROCHOT Output saturation voltage 50 Ω pullup to 1.05 V / 5-mA 0.4 V
VOUT_ LEAK_PROCHOT Leakage current V = 5.5 V –1 1 µA
ANALOG INPUT (ILIM_HIZ)
VHIZ_ LOW Voltage to get out of HIZ mode ILIM_HIZ pin rising 0.7 0.8 V
VHIZ_ HIGH Voltage to enable HIZ mode ILIM_HIZ pin falling 0.4 0.5 V
VILIM_ENZ Voltage to disable external current limit function on ILIM_HIZ pin (EN_EXTLIM=1b) ILIM_HIZ pin rising 4.1 4.2 V
VILIM_EN Voltage to enable external current limit function on ILIM_HIZ pin (EN_EXTLIM=1b) ILIM_HIZ pin falling 3.9 4.0 V
ANALOG INPUT (CELL_BATPRES)
VCELL_5S 5S CELL_BATPRES pin voltage as percentage of REGN = 5 V 90.0% 100.0%
VCELL_4S 4S CELL_BATPRES pin voltage as percentage of REGN = 5 V 68.4% 75.0% 81.5%
VCELL_3S 3S CELL_BATPRES pin voltage as percentage of REGN = 5 V 51.7% 55.0% 65.0%
VCELL_2S 2S CELL_BATPRES pin voltage as percentage of REGN = 5 V 18.4% 40.0% 48.5%
VCELL_BATPRES_RISE Battery is present CELL_BATPRES rising 18.0%
VCELL_BATPRES_FALL Battery is removed CELL_BATPRES falling 14.7%