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Ray Publish 0.1.0 0d084aa 5h ago

DA14697-00000HR2

RENESAS · Microcontroller Units (MCUs/MPUs/SOCs) · VFBGA-100

DA14697-00000HR2 from RENESAS, in a VFBGA-100. Pinout and pin descriptions extracted from the manufacturer datasheet (extract_pins, cross-checked by a second model); symbol, footprint, and 3D from KiCad-official CAD.

Pinout

Pin Name Type Function
A1 QSPIF_CLK output OUTPUT. QSPI Flash clock.
A2 QSPIF_D0 bidirectional INPUT/OUTPUT. QSPI Flash I/O data 0.
A3 P0_10 bidirectional General-purpose I/O (4.8 mA, I-PU at reset) with alternate function M33_SWDIO, the Arm Cortex-M33 JTAG/SWD data I/O signal.
A4 P0_12 bidirectional General-purpose I/O (4.8 mA, I-PU at reset) with alternate functions CMAC_SWDIO (Arm Cortex-M0+ JTAG data I/O) and XTAL32M (32 MHz XTAL oscillator clock output).
A5 VSUP_RF power_in Radio supply voltage input; connect to V14 externally and provide a 10 µF decoupling capacitor.
A6 PSUB power_in RF ground.
A7 RFIOM power_in RF ground for the RFIOP radio port.
A8 RFIOP passive RF input/output with 50 Ω impedance.
A9 RFIOM2 power_in RF ground.
A10 PSUB_RF power_in RF ground.
B1 QSPIF_CS output OUTPUT. QSPI Flash chip select (active LOW); the output is HIGH in default and reset states and no pull-up resistor is required.
B2 QSPIF_D3 bidirectional INPUT/OUTPUT. QSPI Flash I/O data 3.
B3 P0_11 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate function M33_SWCLK, the Arm Cortex-M33 JTAG clock input.
B4 P0_13 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate functions CMAC_SWCLK (Arm Cortex-M0+ JTAG clock input) and RC32M (RC32M clock output, square wave).
B5 P0_09 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate functions GPADC_3 and SDADC_3 analog inputs, PG4_4, and UART Boot TX output.
B6 P0_08 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate functions GPADC_2 and SDADC_2 analog inputs, PG4_3, and UART Boot RX input.
B7 ESDN power_in RF ground.
B8 RSTn input Reset input, active LOW.
B9 P0_07 bidirectional General-purpose I/O (4.8 mA / 0.15 mA reduced drive, I-PD at reset) with alternate function NTC Input, the analog feedback input for the battery NTC.
B10 P0_06 bidirectional General-purpose I/O (4.8 mA / 0.15 mA reduced drive, I-PD at reset) with alternate function SDADC_GND, the analog input for the ΣΔ ADC reference ground.
C1 QSPIF_D2 bidirectional INPUT/OUTPUT. QSPI Flash I/O data 2.
C2 QSPIF_D1 bidirectional INPUT/OUTPUT. QSPI Flash I/O data 1.
C3 P0_24 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate functions PG1_4 (Pattern Generator 1, output 4) and LCD_TE (LCD tearing effect input).
C4 P0_21 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate function PG1_3 (Pattern Generator 1, output 3).
C5 P0_20 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate function PG2_4 (Pattern Generator 2, output 4).
C6 P0_19 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate function PG2_3 (Pattern Generator 2, output 3).
C7 P0_18 bidirectional General-purpose I/O (4.8 mA / 0.15 mA reduced drive, I-PD at reset) with alternate function PG2_2 (Pattern Generator 2, output 2).
C8 P0_17 bidirectional General-purpose I/O (4.8 mA / 0.15 mA reduced drive, I-PD at reset) with alternate functions PG2_1 (Pattern Generator 2, output 1) and RC32k (32 kHz RC clock output, square wave).
C9 P0_16 bidirectional General-purpose I/O (4.8 mA / 0.15 mA reduced drive, I-PD at reset) with alternate functions SDADC_REF (ΣΔ ADC reference voltage input) and RCX (RCX clock output, square wave).
C10 GND_RF2 power_in RF ground.
D1 P0_05 bidirectional General-purpose I/O (4/8/12/16 mA, I-PD at reset) with alternate function QSPIR_CLK (QSPI RAM clock output) and PG3_3; usable as GPIO only at 1.8 V because it is a QSPI pad.
D2 P0_00 bidirectional General-purpose I/O (4/8/12/16 mA, I-PD at reset) with alternate functions QSPIR_D0 (QSPI RAM data I/O 0) and PG3_4; usable as GPIO only at 1.8 V because it is a QSPI pad.
D3 P0_31 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate functions PG1_2 (Pattern Generator 1, output 2) and LCD_XRST (LCD reset for horizontal and vertical driver).
D4 P0_30 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate functions PG1_1 (Pattern Generator 1, output 1), LCD_HST and PLCD_HSYNC.
D5 P0_29 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate functions PG0_4 (Pattern Generator 0, output 4), LCD_HCK and PLCD_CLK.
D6 P0_28 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate functions PG0_3 (Pattern Generator 0, output 3), LCD_VST and PLCD_VSYNC.
D7 P0_27 bidirectional General-purpose I/O (4.8 mA / 0.15 mA reduced drive, I-PD at reset) with alternate functions PG0_2 (Pattern Generator 0, output 2), LCD_ENB and PLCD_ENAB.
D8 P0_26 bidirectional General-purpose I/O (4.8 mA / 0.15 mA reduced drive, I-PD at reset) with alternate functions PG0_1 (Pattern Generator 0, output 1) and LCD_VCK (LCD shift clock for vertical driver).
D9 P0_25 bidirectional General-purpose I/O (4.8 mA / 0.15 mA reduced drive, I-PD at reset) with alternate functions GPADC_1 and SDADC_1 analog inputs.
D10 GND_RF1 power_in RF ground.
E1 P0_04 bidirectional General-purpose I/O (4/8/12/16 mA, I-PU at reset) with alternate functions QSPIR_CS (QSPI RAM chip select, active LOW) and PG3_1; usable as GPIO only at 1.8 V because it is a QSPI pad.
E2 P0_03 bidirectional General-purpose I/O (4/8/12/16 mA, I-PD at reset) with alternate functions QSPIR_D3 (QSPI RAM data I/O 3) and PG3_2; usable as GPIO only at 1.8 V because it is a QSPI pad.
E3 VSSIOQ power_in QSPI ground.
E4 P1_05 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate function LCD_GREEN1 (LCD green image data output, bit 1).
E5 P1_04 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate function LCD_GREEN0 (LCD green image data output, bit 0).
E6 P1_03 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate function LCD_BLUE1 (LCD blue image data output, bit 1).
E7 P1_02 bidirectional General-purpose I/O (4.8 mA / 0.15 mA reduced drive, I-PD at reset) with alternate function LCD_BLUE0 (LCD blue image data output, bit 0).
E8 P1_01 bidirectional General-purpose I/O (4.8 mA / 0.15 mA reduced drive, I-PD at reset) with alternate function Timer.PWM, a timer/PWM output available in Sleep mode.
E9 P1_00 bidirectional General-purpose I/O (4.8 mA / 0.15 mA reduced drive, I-PD at reset) with alternate function NTC Supply, the power supply output for the battery NTC sensor.
E10 XTAL32M_GND power_in Analog ground input of the 32 MHz XTAL oscillator.
F1 P0_02 bidirectional General-purpose I/O (4/8/12/16 mA, I-PD at reset) with alternate functions QSPIR_D2 (QSPI RAM data I/O 2) and PG4_1; usable as GPIO only at 1.8 V because it is a QSPI pad.
F2 P0_01 bidirectional General-purpose I/O (4/8/12/16 mA, I-PD at reset) with alternate functions QSPIR_D1 (QSPI RAM data I/O 1) and PG4_2; usable as GPIO only at 1.8 V because it is a QSPI pad.
F3 VSSD4 power_in Digital ground.
F4 VSSD3 power_in Digital ground.
F5 AVS1 power_in Analog ground.
F6 P1_08 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate function LCD_RED1 (LCD red image data output, bit 1).
F7 P1_07 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate function LCD_RED0 (LCD red image data output, bit 0).
F8 P1_06 bidirectional General-purpose I/O (4.8 mA / 0.15 mA reduced drive, I-PD at reset) with alternate function Timer2.PWM, the Timer2/PWM2 output available in Sleep mode.
F9 XTAL32Mp passive Crystal input for the 32 MHz XTAL oscillator.
F10 XTAL32Mm passive Crystal output for the 32 MHz XTAL oscillator.
G1 V18F power_out 1.8 V power rail with maximum current 50 mA; requires a 0.1 µF decoupling capacitor and must be connected to V18P externally.
G2 V18P power_out 1.8 V power rail with maximum current 50 mA; requires a 22 µF decoupling capacitor.
G3 VSSD1 power_in Digital ground.
G4 VSSD2 power_in Digital ground.
G5 AVS2 power_in Analog ground.
G6 P1_11 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate function LCD_XFRP (LCD liquid crystal driving signal, 62.5 Hz inverted).
G7 P1_10 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate functions LCD_VCOM/LCD_FRP combined output (62.5 Hz) and LCD_EXTCOMIN (1 Hz COM inversion signal input).
G8 P1_09 bidirectional General-purpose I/O (4.8 mA / 0.15 mA reduced drive, I-PD at reset) with alternate functions GPADC_0 and SDADC_0 analog inputs.
G9 XTAL32M_GND power_in Analog ground input of the 32 MHz XTAL oscillator.
G10 XTAL32M_GND power_in Analog ground input of the 32 MHz XTAL oscillator.
H1 V14 power_out 1.4 V power rail output; requires a 10 µF decoupling capacitor.
H2 V18 power_out 1.8 V power rail with maximum current 50 mA; requires a 22 µF decoupling capacitor.
H3 P1_17 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate functions LCD_HST and PLCD_HSYNC (LCD start signal for horizontal driver / column pointer reset).
H4 P1_16 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate functions LCD_HCK and PLCD_CLK (LCD horizontal shift clock / parallel LCD clock).
H5 P1_15 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate functions LCD_VST and PLCD_VSYNC (LCD vertical start / row pointer reset).
H6 P1_14 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate functions SDADC_4 analog input, LCD_ENB and PLCD_ENAB.
H7 P1_13 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate functions GPADC_4 analog input and LCD_VCK (LCD vertical shift clock).
H8 P1_12 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate function GPADC_5, the general-purpose ADC channel 5 analog input.
H9 P0_22 passive General-purpose I/O (4.8 mA, I-PD at reset) with alternate function XTAL32km, the analog output of the 32.768 kHz XTAL oscillator.
H10 P0_23 passive General-purpose I/O (4.8 mA, I-PD at reset) with alternate functions XTAL32kp (analog input of the 32.768 kHz crystal oscillator) and a digital input for an external 32 kHz clock (square wave).
J1 LY passive Connection for the external DC-DC converter inductor.
J2 V12 power_out 1.2 V power rail output; requires a 10 µF decoupling capacitor.
J3 HDRV GND power_in Haptic driver ground.
J4 HDRVP output Positive haptic driver differential output.
J5 VBUS power_in USB bus voltage input (VBUS) that is also the battery charge voltage input; absolute maximum 6.5 V and recommended range 4.2 V to 5.75 V.
J6 V30 power_out 3.0 V power rail with maximum current 150 mA; requires a 4.7 µF decoupling capacitor.
J7 P1_21 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate functions SDADC_6 analog input and LCD_XRST (LCD reset for horizontal and vertical driver).
J8 P1_20 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate function SDADC_5, the ΣΔ ADC channel 5 analog input.
J9 P1_19 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate function GPADC_7, the general-purpose ADC channel 7 analog input.
J10 P1_18 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate function GPADC_6, the general-purpose ADC channel 6 analog input.
K1 LX passive Connection for the external DC-DC converter inductor.
K2 VBAT2 power_in Battery connection 2 for the DC-DC converter supply; recommended supply range 2.4 V to 4.75 V.
K3 BUCK GND power_in DC-DC converter ground.
K4 HDRVM output Negative haptic driver differential output.
K5 VBAT1 power_in Battery connection 1 for the LDO supply; recommended supply range 2.4 V to 4.75 V.
K6 P0_14 bidirectional General-purpose I/O (4.8 mA, I-PD at reset, no state retention in power down) with alternate functions USBp (USB Full Speed D+) and XTAL32k (XTAL32k clock output, square wave).
K7 P0_15 bidirectional General-purpose I/O (4.8 mA, I-PD at reset, no state retention in power down) with alternate functions USBm (USB Full Speed D-) and DIVN (DIVN clock output, square wave).
K8 P1_22 bidirectional General-purpose I/O (4.8 mA, I-PD at reset) with alternate functions SDADC_7 analog input and LCD_TE (LCD tearing effect input).
K9 LED2 output LED 2 driver output, open drain, 20 mA maximum.
K10 LED1 output LED 1 driver output, open drain, 20 mA maximum.

Key specifications

Parameter Value
Manufacturer RENESAS
Package VFBGA-100
Category Single Chip Microcomputer/Microcontroller
Pins 100

Electrical characteristics

Limits as printed in the datasheet (page.json metadata.characteristics carries them as data).

Parameter Symbol Min Typ Max Unit Conditions Page
Limiting voltage on a pin VPIN_LIM_DEF -0.1 3.6 V Default, unless otherwise specified 65
Limiting battery supply voltage VBAT_LIM 0 6 V Pin VBAT 65
Limiting bus supply voltage VBUS_LIM 0 6.5 V Pin VBUS 65
Limiting voltage on a pin VPIN_LIM_3V0 0 3.45 V 3.0 V I/O pins 65
Limiting voltage on a pin VPIN_LIM_1V8 0 1.98 V 1.8 V I/O pins 65
Electrostatic discharge voltage (Human Body Model) VESD_HBM_BGA100 2200 V VFBGA100 package 65
Electrostatic discharge voltage (Charged Device Model) VESD_CDM_BGA100 500 V VFBGA100 package 65
Storage temperature TSTG -50 150 °C 65
Power supply rise time tR_SUP 30 ms 65
Battery supply voltage VBAT 2.4 4.75 V Pin VBAT1 and VBAT2 65
Bus supply voltage VBUS 4.2 5.75 V Pin VBUS 65
Voltage on a pin VPIN_3V0 0 3 V 3.0 V I/O pins 65
Voltage on a pin VPIN_1V8 0 1.8 V 1.8 V I/O pins 65
Ambient temperature TA -40 85 °C 65
Thermal resistance (junction to ambient) RθJA_P2_HR 48.8 ºC/W VFBGA100 package. JEDEC PCB, 0.1W+0.3W Power map 69
LOW level input current with pull-up IIL_PU_RSTN -75 -25 μA Pin RESETn, VI = 0.0 V 69
Bandgap reference voltage from GPADC reference buffer VBG_REF 1.14 1.2 1.26 V 69
Internal bandgap reference trim test current IBG_IREF_CUR_TRIM 13 15 16 μA 69
Reset voltage VRST_VDD_sleep 0.67 0.7 0.73 V BOD_LVL_VDD_RET = 0x6F 69
Reset voltage VRST_VDD 1.02 1.05 1.08 V BOD_LVL_VDD_ON = 0xA7 69
Reset voltage VRST_V14 1.21 1.25 1.29 V BOD_LVL_V14 = 0xC7 69
Reset voltage VRST_V18P 1.61 1.65 1.69 V BOD_LVL_V18P = 0x107 69
Reset voltage VRST_V30 1.91 1.95 1.99 V BOD_LVL_V30 = 0x137 69
Reset voltage VRST_VBAT 2.24 2.3 2.36 V BOD_LVL_VBAT = 0xF4 70
Gain error without calibration EG -3 3 % Trimmed bandgap 70
Gain error after calibration EG_CALIBRATED -1 1 % Trimmed bandgap & Gain Error + Offset correction applied 70
Offset error without calibration EOFS -20 20 LSB Trimmed bandgap; LSB wrt 10bit accuracy 70
Offset error after calibration EOFS_CALIBRATED -7 4 LSB Trimmed bandgap & Gain Error + Offset correction applied; LSB wrt 10bit accuracy 70
Gain error of the 3x attenuator EG_ATTN3x -4 1 % Trimmed bandgap & GPADC Gain Error + Offset correction applied 70
Integral non-linearity INL -2 2 LSB LSB wrt 10bit accuracy 70
Differential non-linearity DNL -2 2 LSB LSB wrt 10bit accuracy 70
Gain error EG_ext_ref -0.25 0.25 % Using external voltage reference 1.2 V 71
Integral non-linearity INL_ext_ref -4 4 LSB LSB wrt 14b accuracy 71
Differential non-linearity DNL_ext_ref -4 4 LSB LSB wrt 14b accuracy 71
Offset error EOFS_ext_ref -2 2 LSB LSB wrt 14b accuracy. Using external voltage reference 1.2 V 71
VDD1V2 Output Voltage VO_1V2_0 0.85 0.9 0.95 V VDD_LEVEL = 0 72
VDD1V2 Output Voltage VO_1V2_1 0.95 1 1.05 V VDD_LEVEL = 1 72
VDD1V2 Output Voltage VO_1V2_2 1.05 1.1 1.15 V VDD_LEVEL = 2 72
VDD1V2 Output Voltage VO_1V2_3 1.15 1.2 1.25 V VDD_LEVEL = 3 72
VDD1V4 Output Voltage VO_1V4_0 1.15 1.2 1.25 V V14_LEVEL = 0 72
VDD1V4 Output Voltage VO_1V4_1 1.2 1.25 1.3 V V14_LEVEL = 1 72
VDD1V4 Output Voltage VO_1V4_2 1.25 1.3 1.35 V V14_LEVEL = 2 72
VDD1V4 Output Voltage VO_1V4_3 1.3 1.35 1.4 V V14_LEVEL = 3 72
VDD1V4 Output voltage VO_1V4_4 1.35 1.4 1.45 V V14_LEVEL = 4 72
VDD1V4 Output Voltage VO_1V4_5 1.4 1.45 1.5 V V14_LEVEL = 5 72
VDD1V4 Output Voltage VO_1V4_6 1.45 1.5 1.55 V V14_LEVEL = 6 72
VDD1V4 Output Voltage VO_1V4_7 1.5 1.55 1.6 V V14_LEVEL = 7 72
VDD1V8 Output Voltage VO_1V8_0 1.1 1.2 1.25 V V18_LEVEL = 0 72
VDD1V8 Output Voltage VO_1V8_1 1.7 1.8 1.9 V V18 LEVEL = 1 72
VDD1V8P Output Voltage VO_1V8P 1.7 1.8 1.9 V 72
LDO output voltage VLDO_1v8_0 1.14 1.2 1.25 V 74
LDO output voltage VLDO_1v8_1 1.7 1.8 1.9 V 74
LDO output voltage VLDO_CORE_0 0.85 0.9 0.95 V V30 = 3.0 V; ILOAD = 1 mA 76
LDO output voltage VLDO_CORE_1 0.95 1 1.05 V V30 = 3.0 V; ILOAD = 1 mA 76
LDO output voltage VLDO_CORE_2 1.04 1.1 1.16 V V30 = 3.0 V; ILOAD = 1 mA 76
LDO output voltage VLDO_CORE_3 1.14 1.2 1.26 V V30 = 3.0 V; ILOAD = 1 mA 76

CAD (KiCad official)

  • Symbol: DA14697-00000HR2
  • Footprint: Package_BGA:VFBGA-100_7.0x7.0mm_Layout10x10_P0.65mm
  • 3D model: VFBGA-100 (KiCad packages3D, STEP)
  • 3D model files: da14697-00000hr2-etched.step / da14697-00000hr2-etched.glb carry the MPN laser-etched on the die in a toggleable Adom.LaserEtch group (Fusion-ready); da14697-00000hr2.step / da14697-00000hr2.glb are the bare package body.

Provenance

Data extracted from the manufacturer datasheet, not a distributor listing:

  • Datasheet: RENESAS datasheet (757 pp, sha256 078a98fd8552338d, retrieved 2026-10-30, tier: manufacturer)
  • Extractor: parts-factory 2.0.0 / extract_pins 0.3, primary claude-haiku-5-5 (text), consensus claude-sonnet-5-5 (agreed), guards: pin_guards 0.1: passed. Pins are checked against the footprint pad set and their cited datasheet pages before publish.
  • CAD: KiCad official libraries (CC-BY-SA 4.0).

Datasheet PDF