JAJSL52A april 2020 – february 2021 BQ25968
PRODUCTION DATA
Table 9-4 can be accesses using I2C using the address programmed by the CDRVH_ADDRMS pin, and the value can be found in Table 9-2.
ADDRESS | ACRONYM | REGISTER NAME | SECTION |
---|---|---|---|
0h | BAT_OVP | Battery Voltage Limit | Go |
1h | BAT_OVP_ALM | Battery Voltage Alarm | Go |
2h | BAT_OCP | Charge Current Limit | Go |
3h | BAT_OCP_ALM | Charge Current Alarm | Go |
4h | BAT_UCP_ALM | Charge Under Current Alarm | Go |
5h | AC_PROTECTION | Input Voltage Limit | Go |
6h | BUS_OVP | Bus Over Voltage Protection | Go |
7h | BUS_OVP_ALM | Input Voltage Alarm | Go |
8h | BUS_OCP_UCP | Input Current Limit | Go |
9h | BUS_OCP_ALM | Input Current Alarm | Go |
Ah | CONVERTER_STATE | Converter State | Go |
Bh | CONTROL | Control Register | Go |
Ch | CHRG_CTRL | Charger Control 1 | Go |
Dh | INT_STAT | INT STAT | Go |
Eh | INT_FLAG | INT Flag | Go |
Fh | INT_MASK | INT Mask | Go |
10h | FLT_STAT | FAULT STAT | Go |
11h | FLT_FLAG | FAULT FLAG | Go |
12h | FLT_MASK | FAULT MASK | Go |
13h | PART_INFO | Part Information | Go |
14h | ADC_CTRL | ADC Control | Go |
15h | ADC_FN_DIS | ADC Function Disable | Go |
16h | IBUS_ADC1 | ADC BUS Current Measurement | Go |
17h | IBUS_ADC0 | ADC BUS Current Measurement | Go |
18h | VBUS_ADC1 | ADC BUS Voltage Measurement | Go |
19h | VBUS_ADC0 | ADC BUS Voltage Measurement | Go |
1Ah | VAC_ADC1 | ADC VAC Voltage Measurement | Go |
1Bh | VAC_ADC0 | ADC VAC Voltage Measurement | Go |
1Ch | VOUT_ADC1 | ADC OUT Voltage Measurement | Go |
1Dh | VOUT_ADC0 | ADC OUT Voltage Measurement | Go |
1Eh | VBAT_ADC1 | ADC BAT Voltage Measurement | Go |
1Fh | VBAT_ADC0 | ADC BAT Voltage Measurement | Go |
20h | IBAT_ADC1 | ADC BAT Current Measurement | Go |
21h | IBAT_ADC0 | ADC BAT Current Measurement | Go |
22h | TSBUS_ADC1 | ADC TSBUS Pin Voltage Measurement | Go |
23h | TSBUS_ADC0 | ADC TSBUS Pin Voltage Measurement | Go |
24h | TSBAT_ADC1 | ADC TSBAT Pin Voltage Measurement | Go |
25h | TSBAT_ADC0 | ADC TSBAT Pin Voltage Measurement | Go |
26h | TDIE_ADC1 | ADC Die Temperature Measurement | Go |
27h | TDIE_ADC0 | ADC Die Temperature Measurement | Go |
28h | TSBUS_FLT1 | TSBUS Pin Voltage Fault Setting | Go |
29h | TSBAT_FLT0 | TSBAT Pin Voltage Fault Setting | Go |
2Ah | TDIE_ALM | Die Temp Fault Setting | Go |
2Bh | CHG_CTRL | Charger Control | Go |
2Ch | VOUT_OVP_STAT | VOUT_OVP status | Go |
2Dh | VOUT_OVP_FLAG_MASK | VOUT_OVP FLAG and MASK | Go |
2Eh | DEGLITCH | Deglitch Settings | Go |
Complex bit access types are encoded to fit into small table cells. Table 9-5 shows the codes that are used for access types in this section.
ACCESS TYPE | CODE | DESCRIPTION |
---|---|---|
Read Type | ||
R | R | Read |
Write Type | ||
W | W | Write |
Reset or Default Value | ||
-n | Value after reset or the default value x may be 0 or 1 |
BAT_OVP is shown in Figure 9-13 and described in Table 9-6.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
BAT_OVP_DIS | RESERVED | BAT_OVP[5] | BAT_OVP[4] | BAT_OVP[3] | BAT_OVP[2] | BAT_OVP[1] | BAT_OVP[0] |
R/W-0h | 0h | R/W-1h | R/W-0h | R/W-0h | R/W-0h | R/W-1h | R/W-0h |
Bit | Field | Type | Reset or Default | Reset by Reg_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | BAT_OVP_DIS | R/W | 0h | Y | N | N/A |
Disable BAT_OVP |
6 | RESERVED | 0h | |||||
5 | BAT_OVP[5] | R/W | 1h | Y | N | 800 mV | Battery Overvoltage
Protection Setting. When the battery voltage goes above the
programmed threshold, and INT is sent, the
output is disabled and CHG_EN is set to 0. The host controller should monitor the battery voltage to ensure that the adapter keeps the voltage under this threshold for proper operation. The setting is determined by BAT_OVP = 3.475 V + BAT_OVP[5:0]*25 mV Default: 4.35 V (b 10 0010) |
4 | BAT_OVP[4] | R/W | 0h | Y | N | 400 mV | |
3 | BAT_OVP[3] | R/W | 0h | Y | N | 200 mV | |
2 | BAT_OVP[2] | R/W | 0h | Y | N | 100 mV | |
1 | BAT_OVP[1] | R/W | 1h | Y | N | 50 mV | |
0 | BAT_OVP[0] | R/W | 0h | Y | N | 25 mV |
BAT_OVP_ALM is shown in Figure 9-14 and described in Table 9-7.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
BAT_OVP_ALM_DIS | RESERVED | BAT_OVP_ALM[5] | BAT_OVP_ALM[4] | BAT_OVP_ALM[3] | BAT_OVP_ALM[2] | BAT_OVP_ALM[1] | BAT_OVP_ALM[0] |
R/W-0h | 0h | R/W-0h | R/W-1h | R/W-1h | R/W-1h | R/W-0h | R/W-0h |
Bit | Field | Type | Reset or Default | Reset by Reg_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | BAT_OVP_ALM_DIS | R/W | 0h | Y | N | N/A | Disable BAT_OVP_ALM |
6 | RESERVED | 0h | |||||
5 | BAT_OVP_ALM[5] | R/W | 0h | Y | N | 800 mV | Battery Overvoltage Alarm Setting. When the battery
voltage goes above the programmed threshold an INT is sent. The BAT_OVP_ALM should be set lower than BAT_OVP and the host controller should monitor the battery voltage to ensure that the adapter keeps the voltage under the BAT_OVP threshold for proper operation. The setting is determined by BAT_OVP_ALM = 3.5 V + BAT_OVP_ALM[5:0]*25 mV Default: 4.2 V (b01 1100) |
4 | BAT_OVP_ALM[4] | R/W | 1h | Y | N | 400 mV | |
3 | BAT_OVP_ALM[3] | R/W | 1h | Y | N | 200 mV | |
2 | BAT_OVP_ALM[2] | R/W | 1h | Y | N | 100 mV | |
1 | BAT_OVP_ALM[1] | R/W | 0h | Y | N | 50 mV | |
0 | BAT_OVP_ALM[0] | R/W | 0h | Y | N | 25 mV |
BAT_OCP is shown in Figure 9-15 and described in Table 9-8.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
BAT_OCP_DIS | BAT_OCP[6] | BAT_OCP[5] | BAT_OCP[4] | BAT_OCP[3] | BAT_OCP[2] | BAT_OCP[1] | BAT_OCP[0] |
R/W-0h | R/W-0h | R/W-1h | R/W-1h | R/W-1h | R/W-1h | R/W-0h | R/W-1h |
Bit | Field | Type | Reset or Default | Reset by Reg_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | BAT_OCP_DIS | R/W | 0h | Y | N | N/A | Disable BAT_OCP |
6 | BAT_OCP[6] | R/W | 0h | Y | N | 6400 mA | Battery Overcurrent Protection Setting. Any setting over
10 A is set to 10 A. When the battery current goes above the programmed threshold, the output is disabled. The host controller should monitor the battery current to ensure that the adapter keeps the current under this threshold for proper operation. The setting is determined by BAT_OCP = 2 A + BAT_OCP[6:0]*100 mA Default: 8.1 A (b 011 1101) |
5 | BAT_OCP[5] | R/W | 1h | Y | N | 3200 mA | |
4 | BAT_OCP[4] | R/W | 1h | Y | N | 1600 mA | |
3 | BAT_OCP[3] | R/W | 1h | Y | N | 800 mA | |
2 | BAT_OCP[2] | R/W | 1h | Y | N | 400 mA | |
1 | BAT_OCP[1] | R/W | 0h | Y | N | 200 mA | |
0 | BAT_OCP[0] | R/W | 1h | Y | N | 100 mA |
BAT_OCP_ALM is shown in Figure 9-16 and described in Table 9-9.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
BAT_OCP_ALM_DIS | BAT_OCP_ALM[6] | BAT_OCP_ALM[5] | BAT_OCP_ALM[4] | BAT_OCP_ALM[3] | BAT_OCP_ALM[2] | BAT_OCP_ALM[1] | BAT_OCP_ALM[0] |
R/W-0h | R/W-0h | R/W-1h | R/W-1h | R/W-1h | R/W-1h | R/W-0h | R/W-0h |
Bit | Field | Type | Reset or Default | Reset by Reg_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | BAT_OCP_ALM_DIS | R/W | 0h | Y | N | N/A | Disable BAT_OCP_ALM |
6 | BAT_OCP_ALM[6] | R/W | 0h | Y | N | 6400 mA | Battery Overcurrent Alarm Setting. When the battery
current goes above the programmed threshold an
INT is sent. The BAT_OCP_ALM should be set lower than the BAT_OCP and the host controller should monitor the battery current to ensure that the adapter keeps the current under the BAT_OCP threshold for proper operation. The setting is determined by BAT_OCP_ALM = 2 A + BAT_OCP_ALM[6:0]*100 mA Default: 8 A |
5 | BAT_OCP_ALM[5] | R/W | 1h | Y | N | 3200 mA | |
4 | BAT_OCP_ALM[4] | R/W | 1h | Y | N | 1600 mA | |
3 | BAT_OCP_ALM[3] | R/W | 1h | Y | N | 800 mA | |
2 | BAT_OCP_ALM[2] | R/W | 1h | Y | N | 400 mA | |
1 | BAT_OCP_ALM[1] | R/W | 0h | Y | N | 200 mA | |
0 | BAT_OVP_ALM[0] | R/W | 0h | Y | N | 100 mA |
BAT_UCP_ALM is shown in Figure 9-17 and described in Table 9-10.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
BAT_UCP_ALM_DIS | BAT_UCP_ALM[6] | BAT_UCP_ALM[5] | BAT_UCP_ALM[4] | BAT_UCP_ALM[3] | BAT_UCP_ALM[2] | BAT_UCP_ALM[1] | BAT_UCP_ALM[0] |
R/W-0h | R/W-0h | R/W-1h | R/W-0h | R/W-1h | R/W-0h | R/W-0h | R/W-0h |
Bit | Field | Type | Reset or Default | Reset by Reg_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | BAT_UCP_ALM_DIS | R/W | 0h | Y | N | N/A | Disable BAT_UCP_ALM |
6 | BAT_UCP_ALM[6] | R/W | 0h | Y | N | 3200 mA | Battery Undercurrent Alarm Setting. When the battery
current falls below the programmed threshold, an
INT is sent. The host controller should monitor the battery current to determine when to disable the BQ25968 and hand overcharging to the switching charger. The setting is determined by BAT_UCP_ALM = BAT_UCP_ALM[7:0]*50 mA Default: 2 A (b0101000) |
5 | BAT_UCP_ALM[5] | R/W | 1h | Y | N | 1600 mA | |
4 | BAT_UCP_ALM[4] | R/W | 0h | Y | N | 800 mA | |
3 | BAT_UCP_ALM[3] | R/W | 1h | Y | N | 400 mA | |
2 | BAT_UCP_ALM[2] | R/W | 0h | Y | N | 200 mA | |
1 | BAT_UCP_ALM[1] | R/W | 0h | Y | N | 100 mA | |
0 | BAT_UCP_ALM[0] | R/W | 0h | Y | N | 50 mA |
AC_PROTECTION is shown in Figure 9-18 and described in Table 9-11.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
AC_OVP_STAT | AC_OVP_FLAG | AC_OVP_MASK | RESERVED | AC_OVP[2] | AC_OVP[1] | AC_OVP[0] | |
R-0h | R-0h | R/W-0h | R-x | R/W-0h | R/W-1h | R/W-1h |
Bit | Field | Type | Reset or Default | Reset by Reg_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | AC_OVP_STAT | R | 0h | Y | N/A | N/A | Status of AC_OVP. Persists until condition is no longer valid. |
6 | AC_OVP_FLAG | R | 0h | Y | N/A | N/A | Set when an AC_OVP event occurs. Cleared upon read. |
5 | AC_OVP_MASK | R/W | 0h | Y | N | N/A | Masks an AC_OVP event from sending an INT. |
4-3 | RESERVED | R | x | N | N | N/A | RESERVED |
2 | AC_OVP[2] | R/W | 0h | Y | N | 4 V | Bus Overvoltage Protection Setting. When the bus voltage
reaches the programmed threshold, OVPGATE turns off the OVP FET. The host controller should monitor the bus voltage to ensure that the adapter keeps the voltage under this threshold for proper operation. The setting is determined by AC_OVP = 11 V + AC_OVP[3:0]*1 V Writing all 1s to these bits sets the AC_OVP to 6.5 V |
1 | AC_OVP[1] | R/W | 1h | Y | N | 2 V | |
0 | AC_OVP[0] | R/W | 1h | Y | N | 1 V |
BUS_OVP is shown in Figure 9-19 and described in Table 9-12.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
VBUS_PD_EN | BUS_OVP[6] | BUS_OVP[5] | BUS_OVP[4] | BUS_OVP[3] | BUS_OVP[2] | BUS_OVP[1] | BUS_OVP[0] |
R/W-0h | R/W-0h | R/W-1h | R/W-1h | R/W-1h | R/W-0h | R/W-1h | R/W-0h |
Bit | Field | Type | Reset or Default | Reset by Reg_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | VBUS_PD_EN | R/W | 0h | Y | N | N/A | 0: Pulldown disabled, 1: Pulldown enabled Enabling this will turn off the external OVPFET, and conduct current from VBUS to GND through an internal diode. Any time the OVPFET charge pump is not running, this pulldown device will be active to help discharge VBUS after a hot-plug event. |
6 | BUS_OVP[6] | R/W | 0h | Y | N | 3200 mV | Bus Overvoltage Setting. When the bus voltage reaches the
programmed threshold, QB is turned off and CH_EN is set to 0. The host controller should monitor the bus voltage to ensure that the adapter keeps the voltage under the BUS_OVP threshold for proper operation. The setting is determined by BUS_OVP = 5.95 V + BUS_OVP[6:0]*50 mV Default: 8.9 V (b011 1010) |
5 | BUS_OVP[5] | R/W | 1h | Y | N | 1600 mV | |
4 | BUS_OVP[4] | R/W | 1h | Y | N | 800 mV | |
3 | BUS_OVP[3] | R/W | 1h | Y | N | 400 mV | |
2 | BUS_OVP[2] | R/W | 0h | Y | N | 200 mV | |
1 | BUS_OVP[1] | R/W | 1h | Y | N | 100 mV | |
0 | BUS_OVP[0] | R/W | 0h | Y | N | 50 mV |
BUS_OVP_ALM is shown in Figure 9-20 and described in Table 9-13.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
BUS_OVP_ALM_DIS | BUS_OVP_ALM[6] | BUS_OVP_ALM[5] | BUS_OVP_ALM[4] | BUS_OVP_ALM[3] | BUS_OVP_ALM[2] | BUS_OVP_ALM[1] | BUS_OVP_ALM[0] |
R/W-0h | R/W-0h | R/W-1h | R/W-1h | R/W-1h | R/W-0h | R/W-0h | R/W-0h |
Bit | Field | Type | Reset or Default | Reset by Reg_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | BUS_OVP_ALM_DIS | R/W | 0h | Y | N | N/A | Disable BUS_OVP_ALM |
6 | BUS_OVP_ALM[6] | R/W | 0h | Y | N | 3200 mV | Bus Overvoltage Alarm Setting. When the bus voltage
reaches the programmed threshold, an INT is sent. The host controller should monitor the bus voltage to ensure that the adapter keeps the voltage under the BUS_OVP threshold for proper operation. The setting is determined by BUS_OVP_ALM = 6 V + BUS_OVP_ALM[6:0]*50 mV Default: 8.8 V (b011 1000) |
5 | BUS_OVP_ALM[5] | R/W | 1h | Y | N | 1600 mV | |
4 | BUS_OVP_ALM[4] | R/W | 1h | Y | N | 800 mV | |
3 | BUS_OVP_ALM[3] | R/W | 1h | Y | N | 400 mV | |
2 | BUS_OVP_ALM[2] | R/W | 0h | Y | N | 200 mV | |
1 | BUS_OVP_ALM[1] | R/W | 0h | Y | N | 100 mV | |
0 | BUS_OVP_ALM[0] | R/W | 0h | Y | N | 50 mV |
BUS_OCP_UCP is shown in Figure 9-21 and described in Table 9-14.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
BUS_OCP_DIS | IBUS_UCP_RISE_FLAG | IBUS_UCP_RISE_MASK | IBUS_UCP_FALL_FLAG | BUS_OCP[3] | BUS_OCP[2] | BUS_OCP[1] | BUS_OCP[0] |
R/W-0h | R-0h | R/W-0h | R-0h | R/W-1h | R/W-1h | R/W-0h | R/W-1h |
Bit | Field | Type | Reset or Default | Reset by Reg_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | BUS_OCP_DIS | R/W | 0h | Y | N | N/A | BUS_OCP Disable |
6 | IBUS_UCP_RISE_FLAG | R | 0h | Y | N/A | N/A | Bus Undercurrent Threshold Rising Flag. An INT is sent when this occurs, and is cleared upon read. |
5 | IBUS_UCP_RISE_MASK | R/W | 0h | Y | N | N/A | Bus Undercurrent Threshold Rising INT Mask. 0: Not Masked, 1: Masked |
4 | IBUS_UCP_FALL_FLAG | R | 0h | Y | N/A | N/A | Bus Undercurrent Threshold Falling Flag. An INT is sent when this occurs, and is cleared upon read. |
3 | BUS_OCP[3] | R/W | 1h | Y | N | 2 A | Bus Overcurrent Protection Setting. When the bus current reaches the programmed threshold, the output is disabled. The host controller should monitor the bus current to ensure that the adapter keeps the current under this threshold for proper operation. |
2 | BUS_OCP[2] | R/W | 1h | Y | N | 1 A | |
1 | BUS_OCP[1] | R/W | 0h | Y | N | 500 mA | |
0 | BUS_OCP[0] | R/W | 1h | Y | N | 250 mA |
BUS_OCP_ALM is shown in Figure 9-22 and described in Table 9-15.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
BUS_OCP_ALM_DIS | BUS_OCP_ALM[6] | BUS_OCP_ALM[5] | BUS_OCP_ALM[4] | BUS_OCP_ALM[3] | BUS_OCP_ALM[2] | BUS_OCP_ALM[1] | BUS_OCP_ALM[0] |
R/W-0h | R/W-1h | R/W-0h | R/W-1h | R/W-0h | R/W-0h | R/W-0h | R/W-0h |
Bit | Field | Type | Reset or Default | Reset by Reg_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | BUS_OCP_ALM_DIS | R/W | 0h | Y | N | N/A | BUS_OCP_ALM Disable |
6 | BUS_OCP_ALM[6] | R/W | 1h | Y | N | 3200 mA | Bus Overcurrent Alarm Setting. When the bus current
reaches the programmed threshold, an INT is
sent. The host controller should monitor the bus current to ensure that the adapter keeps the current under BUS_OCP for proper operation. The setting is determined by BUS_OCP_ALM = BUS_OCP_ALM[6:0]*50 mA - 50 mA Writing all 0s is 0 A Default: 4 A (b1010000) |
5 | BUS_OCP_ALM[5] | R/W | 0h | Y | N | 1600 mA | |
4 | BUS_OCP_ALM[4] | R/W | 1h | Y | N | 800 mA | |
3 | BUS_OCP_ALM[3] | R/W | 0h | Y | N | 400 mA | |
2 | BUS_OCP_ALM[2] | R/W | 0h | Y | N | 200 mA | |
1 | BUS_OCP_ALM[1] | R/W | 0h | Y | N | 100 mA | |
0 | BUS_OCP_ALM[0] | R/W | 0h | Y | N | 50 mA |
CONVERTER_STATE is shown in Figure 9-23 and described in Table 9-16.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
TSHUT_FLAG | TSHUT_STAT | VBUS_ ERRORLO_ STAT | VBUS_ ERRORHI_ STAT | SS_TIMEOUT_FLAG | CONV_SWITCHING_STAT | CONV_OCP_ FLAG | FLYCAP_ SHORT_FLAG |
R-0h | R-0h | R-0h | R-0h | R-0h | R-0h | R-0h | R-0h |
Bit | Field | Type | Reset or Default | Reset by Reg_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | TSHUT_FLAG | R | 0h | Y | N/A | N/A | Thermal Shutdown Flag. An INT is sent when this event happens, and is cleared when read. |
6 | TSHUT_STAT | R | 0h | Y | N/A | N/A | Thermal Shutdown Status. This register is 1 until the event no longer persists. |
5 | VBUS_ERRORLO_STAT | R | 0h | Y | N/A | N/A | VBUS is too low for the converter to start switching. This bit shows the current status, and is 0 only when the event is not happening. |
4 | VBUS_ERRORHI_STAT | R | 0h | Y | N/A | N/A | VBUS is too high for the converter to start switching. This bit shows the current status, and is 0 only when the event is not happening. |
3 | SS_TIMEOUT_FLAG | R | 0h | N | N/A | N/A | Soft-Start Timeout Flag. If the current is not ramped to the proper level in SS_TIMEOUT_SET[1:0] time, the converter will stop switching. An INT is sent when this event happens, and is cleared when read. |
2 | CONV_SWITCHING_STAT | R | 0h | N | N/A | N/A | An interrupt is sent when the converter starts switching and the SS timer starts. The adapter current must be ramped to the IBUS_UCP_RISE threshold SS_TIMEOUT or switching will stop. This bit is not maskable. Only one INT is set when switching starts. The bit can be read at any time to determine if the part is switching or not. |
1 | CONV_OCP_FLAG | R | 0h | N | N/A | N/A | Converter Overcurrent Flag. When any internal switching FET reaches current limit, an INT is sent when this event happens, and is cleared when read. |
0 | PIN_DIAG_FAIL_FLAG | R | 0h | Y | N/A | N/A | Pin Diagnostic Fail Flag. When CHG_EN is set to '1', several fault conditions are checked on the CFLY and VOUT pins to ensure proper operation. If a diagnostic fails, an INT is sent when this event happens, and is cleared when read. |
CONTROL is shown in Figure 9-24 and described in Table 9-17.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
REG_RST | FSW_SET[2:0] | WD_TIMEOUT_FLAG | WATCHDOG_DIS | WATCHDOG[1:0] | |||
R/W-0h | R/W-4h | R-0h | R/W-0h | R/W-0h | |||
Bit | Field | Type | Reset or Default | Reset by Reg_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | REG_RST | R/W | 0h | Y | N | N/A | 0 = No Register Reset 1 = Reset Registers to their Default Values Always reads 0 |
6 | FSW_SET[2] | R/W | 1h | N | N | N/A | Set the Switching Frequency 000: Slowest (187.5 kHz) 001: 250 kHz 010: 300 kHz 011: 375 kHz 100: 500 kHz (default) 101-111: Fastest (750 kHz) If master or slave, max frequency is 500 kHz |
5 | FSW_SET[1] | R/W | 0h | N | N | N/A | |
4 | FSW_SET[0] | R/W | 0h | N | N | N/A | |
3 | WD_TIMEOUT_FLAG | R | 0h | Y | N/A | N/A | Watchdog Timeout Flag. An INT is sent when this event happens, and is cleared when read. |
2 | WATCHDOG_DIS | R/W | 0h | Y | N | N/A | 0 = Watchdog Enabled 1 = Watchdog Disabled |
1 | WATCHDOG[1] | R/W | 0h | Y | N | N/A | Watchdog Timing, (Cleared by any completed read or write I2C transaction) 00 = 0.5 s (default) 01 = 1 s 10 = 5 s 11 = 30 s |
0 | WATCHDOG[0] | R/W | 0h | Y | N | N/A |
CHRG_CTRL is shown in Figure 9-25 and described in Table 9-18.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
CHG_EN | MS[1:0] | FREQ_SHIFT[1:0] | TSBUS_DIS | TSBAT_DIS | TDIE_DIS | ||
R/W-0h | R-0h | R/W-0h | R/W-0h | R/W-0h | R/W-0h | ||
Bit | Field | Type | Reset or Default | Reset by Reg_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | CHG_EN | R/W | 0h | Y | Y | N/A | 0 = Charge disabled 1 = Charge enabled |
6-5 | MS[1:0] | R | 0h | Y | N/A | N/A | Master, Slave, or Standalone Operation. 00 = Standalone 01 = Slave 1X = Master |
4-3 | FREQ_SHIFT[1:0] | R/W | 0h | Y | N | N/A | Adjust Fsw for EMI. 00 = Nominal Frequency 01 = +10% 10 = –10% 11 = Spread Spectrum varies frequency ±10% |
2 | TSBUS_DIS | R/W | 0h | Y | N | N/A | Disable TSBUS protection function. 0 = Enabled 1 = Disable |
1 | TSBAT_DIS | R/W | 0h | Y | N | N/A | Disable TSBAT protection function. 0 = Enabled 1 = Disable |
0 | TDIE_DIS | R/W | 0h | Y | N | N/A | Disable TDIE protection function. |
INT_STAT is shown in Figure 9-26 and described in Table 9-19.
Return to Summary Table.
Shows current status. All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
BAT_OVP_ ALM_STAT | BAT_OCP_ ALM_STAT | BUS_OVP_ ALM_STAT | BUS_OCP_ ALM_STAT | BAT_UCP_ ALM_STAT | ADAPTER_ INSERT_STAT | VBAT_INSERT_STAT | ADC_DONE_ STAT |
R-x | R-x | R-x | R-x | R-x | R-x | R-x | R-x |
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset By WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | BAT_OVP_ALM_STAT | R | x | N | N/A | N/A | BAT_OVP_ALM threshold is exceeded. |
6 | BAT_OCP_ALM_STAT | R | x | N | N/A | N/A | BAT_OCP_ALM threshold is exceeded. |
5 | BUS_OVP_ALM_STAT | R | x | N | N/A | N/A | BUS_OVP_ALM threshold is exceeded. |
4 | BUS_OCP_ALM_STAT | R | x | N | N/A | N/A | BUS_OCP_ALM threshold is exceeded. |
3 | BAT_UCP_ALM_STAT | R | x | N | N/A | N/A | BAT_UCP_ALM is below the threshold. |
2 | ADAPTER_INSERT_STAT | R | x | N | N/A | N/A | BUS voltage is present and above the VBUS UVLO threshold. |
1 | VBAT_INSERT_STAT | R | x | N | N/A | N/A | BAT voltage is present. |
0 | ADC_DONE_STAT | R | x | N | N/A | N/A | Indicates if the ADC conversion is complete for the requested parameters in 1-Shot Mode only. This bit will change to '0' when an ADC conversion is requested in 1-Shot Mode, and it will change back to '1' when the conversion is complete. During continuous conversion mode, this bit will be 0. 0 = Conversion not complete 1 = Conversion complete |
INT_FLAG is shown in Figure 9-27 and described in Table 9-20.
Return to Summary Table.
Only clears upon read. All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
BAT_OVP_ ALM_FLAG | BAT_OCP_ ALM_FLAG | BUS_OVP_ ALM_FLAG | BUS_OCP_ ALM_FLAG | BAT_UCP_ ALM_FLAG | ADAPTER_ INSERT_FLAG | VBAT_INSERT_FLAG | ADC_DONE_ FLAG |
R-x | R-x | R-x | R-x | R-x | R-x | R-x | R-x |
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | BAT_OVP_ALM_FLAG | R | x | N | N/A | N/A | BAT_OVP_ALM threshold has been exceeded. |
6 | BAT_OCP_ALM_FLAG | R | x | N | N/A | N/A | BAT_OCP_ALM threshold has been exceeded. |
5 | BUS_OVP_ALM_FLAG | R | x | N | N/A | N/A | BUS_OVP_ALM threshold has been exceeded. |
4 | BUS_OCP_ALM_FLAG | R | x | N | N/A | N/A | BUS_OCP_ALM threshold has been exceeded. |
3 | BAT_UCP_ALM_FLAG | R | x | N | N/A | N/A | BAT_UCP_ALM has fallen below the threshold. |
2 | ADAPTER_INSERT_FLAG | R | x | N | N/A | N/A | BUS voltage has been present and above the VBUS UVLO threshold. |
1 | VBAT_INSERT_FLAG | R | x | N | N/A | N/A | BAT votlage has been present. |
0 | ADC_DONE_FLAG | R | x | N | N/A | N/A | 0 = Conversion not complete 1 = Conversion complete |
INT_MASK is shown in Figure 9-28 and described in Table 9-21.
Return to Summary Table.
INT will not assert low if enabled. All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
BAT_OVP_ ALM_MASK | BAT_OCP_ ALM_MASK | BUS_OVP_ ALM_MASK | BUS_OCP_ ALM_MASK | BAT_UCP_ ALM_MASK | ADAPTER_ INSERT_MASK | VBAT_INSERT_MASK | ADC_DONE_ MASK |
R/W-0h | R/W-0h | R/W-0h | R/W-0h | R/W-0h | R/W-0h | R/W-0h | R/W-0h |
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | BAT_OVP_ALM_MASK | R/W | 0h | Y | N | N/A | Masks BAT Overvoltage Alarm Event. 0 = Not Masked 1 = Masked |
6 | BAT_OCP_ALM_MASK | R/W | 0h | Y | N | N/A | Masks BAT Overcurrent Alarm Event. 0 = Not Masked 1 = Masked |
5 | BUS_OVP_ALM_MASK | R/W | 0h | Y | N | N/A | Masks BUS Overvoltage Alarm Event. 0 = Not Masked 1 = Masked |
4 | BUS_OCP_ALM_MASK | R/W | 0h | Y | N | N/A | Masks BUS Overcurrent Alarm Event. 0 = Not Masked 1 = Masked |
3 | BAT_UCP_ALM_MASK | R/W | 0h | Y | N | N/A | Masks BAT_UCP Alarm Event. 0 = Not Masked 1 = Masked |
2 | ADAPTER_INSERT_MASK | R/W | 0h | Y | N | N/A | Masks a ADAPTER_INSERT Event. 0 = Not Masked 1 = Masked |
1 | VBAT_INSERT_MASK | R/W | 0h | Y | N | N/A | Masks a VBAT INSERT EVENT. 0 = Not Masked 1 = Masked |
0 | ADC_DONE_MASK | R/W | 0h | Y | N | N/A | Masks a ADC DONE Event. 0 = Not Masked 1 = Masked |
FLT_STAT is shown in Figure 9-29 and described in Table 9-22.
Return to Summary Table.
Shows current status. All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
BAT_OVP_FLT_STAT | BAT_OCP_FLT_STAT | BUS_OVP_FLT_STAT | BUS_OCP_FLT_STAT | TSBUS_TSBAT_ALM_STAT | TSBAT_FLT_STAT | TSBUS_FLT_STAT | TDIE_ALM_STAT |
R-x | R-x | R-x | R-x | R-x | R-x | R-x | R-x |
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | BAT_OVP_FLT_STAT | R | x | N | N/A | N/A | Indicates a BAT Overvoltage Event is occurring. |
6 | BAT_OCP_FLT_STAT | R | x | N | N/A | N/A | Indicates a BAT Overcurrent Event is occurring. |
5 | BUS_OVP_FLT_STAT | R | x | N | N/A | N/A | Indicates a BUS Overvoltage Event is occurring. |
4 | BUS_OCP_FLT_STAT | R | x | N | N/A | N/A | Indicates a BUS Overcurrent Event is occurring. |
3 | TSBUS_TSBAT_ALM_STAT | R | x | N | N/A | N/A | Indicates that the TSBUS or TSBAT threshold is within 5% of the TSBUS_FLT or TSBAT_FLT set threshold. |
2 | TSBAT_FLT_STAT | R | x | N | N/A | N/A | Indicates a BAT Over Temp Fault has Occurred TSBAT voltage falls below TSBAT_FLT setting. |
1 | TSBUS_FLT_STAT | R | x | N | N/A | N/A | Indicates a BUS Over Temp Fault has Occurred TSBUS votlage falls below TSBUS_FLT setting. |
0 | TDIE_ALM_STAT | R | x | N | N/A | N/A | Indicates a DIE Over Temp Fault has Occurred TDIE_ALM temp has been exceeded. |
FLT_FLAG is shown in Figure 9-30 and described in Table 9-23.
Return to Summary Table.
Only clears upon read. All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
BAT_OVP_FLT_FLAG | BAT_OCP_FLT_FLAG | BUS_OVP_FLT_FLAG | BUS_OCP_FLT_FLAG | TSBUS_TSBAT_ALM_FLAG | TSBAT_FLT_FLAG | TSBUS_FLT_FLAG | TDIE_ALM_FLAG |
R-x | R-x | R-x | R-x | R-x | R-x | R-x | R-x |
Bit | Field | Type | Reset or Default | Reset By REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | BAT_OVP_FLT_FLAG | R | x | N | N/A | N/A | Indicates a BAT Overvoltage Event has occurred. |
6 | BAT_OCP_FLT_FLAG | R | x | N | N/A | N/A | Indicates a BAT Overcurrent Event has occurred. |
5 | BUS_OVP_FLT_FLAG | R | x | N | N/A | N/A | Indicates a BUS Overvoltage Event has occurred. |
4 | BUS_OCP_FLT_FLAG | R | x | N | N/A | N/A | Indicates a BUS Overcurrent Event has occurred. |
3 | TSBUS_TSBAT_ALM_FLAG | R | x | N | N/A | N/A | Indicates that the TSBUS or TSBAT threshold has been within 5% of the TSBUS_FLT or TSBAT_FLT set threshold. |
2 | TSBAT_FLT_FLAG | R | x | N | N/A | N/A | Indicates a BAT Temp Fault has Occurred. |
1 | TSBUS_FLT_FLAG | R | x | N | N/A | N/A | Indicates a BUS Temp Fault has Occurred. |
0 | TDIE_ALM_FLAG | R | x | N | N/A | N/A | Indicates a DIE Temp Fault has Occurred. |
FLT_MASK is shown in Figure 9-31 and described in Table 9-24.
Return to Summary Table.
INT will not assert if enabled. All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
BAT_OVP_FLT_MASK | BAT_OCP_FLT_MASK | BUS_OVP_FLT_MASK | BUS_OCP_FLT_MASK | TSBUS_TSBAT_ALM_MASK | TSBAT_FLT_MASK | TSBUS_FLT_MASK | TDIE_ALM_MASK |
R/W-0h | R/W-0h | R/W-0h | R/W-0h | R/W-0h | R/W-0h | R/W-0h | R/W-0h |
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | BAT_OVP_FLT_MASK | R/W | 0h | Y | N | N/A | Masks BAT Overvoltage Event. 0 = Not Masked 1 = Masked |
6 | BAT_OCP_FLT_MASK | R/W | 0h | Y | N | N/A | Masks BAT Overcurrent Event. 0 = Not Masked 1 = Masked |
5 | BUS_OVP_FLT_MASK | R/W | 0h | Y | N | N/A | Masks BUS Overvoltage Event. 0 = Not Masked 1 = Masked |
4 | BUS_OCP_FLT_MASK | R/W | 0h | Y | N | N/A | Masks BUS Overcurrent Event. 0 = Not Masked 1 = Masked |
3 | TSBUS_TSBAT_ALM_MASK | R/W | 0h | Y | N | N/A | Masks TSBUS_TSBAT_ALM Event. 0 = Not Masked 1 = Masked |
2 | TSBAT_FLT_MASK | R/W | 0h | Y | N | N/A | Masks a BAT Temp Fault. 0 = Not Masked 1 = Masked |
1 | TSBUS_FLT_MASK | R/W | 0h | Y | N | N/A | Masks a BUS Temp Fault. 0 = Not Masked 1 = Masked |
0 | TDIE_ALM_MASK | R/W | 0h | Y | N | N/A | Masks a DIE Temp Fault. 0 = Not Masked 1 = Masked |
PART_INFO is shown in Figure 9-32 and described in Table 9-25.
Return to Summary Table.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
RESERVED[7:4] | DEVICE_ID[3:0] | ||||||
R-x | R-x | ||||||
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset By WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | RESERVED | 0 | |||||
6 | RESERVED | 0 | |||||
5 | RESERVED | 0 | |||||
4 | RESERVED | 1 | |||||
3 | DEVICE_ID[3] | R | x | x | N/A | x | Device ID 0000 = BQ25970 0001= BQ25971 0110= BQ25968 |
2 | DEVICE_ID[2] | R | x | x | N/A | x | |
1 | DEVICE_ID[1] | R | x | x | N/A | x | |
0 | DEVICE_ID[0] | R | x | x | N/A | x |
ADC_CTRL is shown in Figure 9-33 and described in Table 9-26.
Return to Summary Table.
Bits 7-3 and bit 0 are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
ADC_EN | ADC_RATE | ADC_AVG | ADC_AVG_INIT | ADC_SAMPLE[1:0] | RESERVED | IBUS_ADC_DIS | |
R/W-0h | R/W-0h | R/W-0h | R/W-0h | R/W-0h | 0 | R/W-0h | |
Bit | Field | Type | Reset or Default | Reset By REG_RST | Reset By WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | ADC_EN | R/W | 0h | Y | Y | N/A | Enable ADC 0 = Disabled 1 = Enabled |
6 | ADC_RATE | R/W | 0h | Y | N | N/A | 0 = Continuous Conversion 1 = One-shot |
5 | ADC_AVG | R/W | 0h | Y | N | N/A | 0 = Single Value 1 = Running Average |
4 | ADC_AVG_INIT | R/W | 0h | Y | N | N/A | 0 = Start averaging using the existing register value 1 = Start averaging using a new ADC conversion |
3-2 | ADC_SAMPLE[1:0] | R/W | 0h | Y | N | N/A | Sample speed of the ADC. 00 = 15-bit effective resolution 01 = 14-bit effective resolution 10 = 13-bit effective resolution 11 = 12-bit effective resolution |
1 | RESERVED | 0 | |||||
0 | IBUS_ADC_DIS | R/W | 0h | Y | N | N/A | 0 = Enable Conversion 1 = Disable Conversion |
ADC_FN_DIS is shown in Figure 9-34 and described in Table 9-27.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
VBUS_ADC_DIS | VAC_ADC_DIS | VOUT_ADC_DIS | VBAT_ADC_DIS | IBAT_ADC_DIS | TSBUS_ADC_DIS | TSBAT_ADC_DIS | TDIE_ADC_DIS |
R/W-0h | R/W-0h | R/W-0h | R/W-0h | R/W-0h | R/W-0h | R/W-0h | R/W-0h |
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset By WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | VBUS_ADC_DIS | R/W | 0h | Y | N | N/A | 0 = Enable Conversion 1 = Disable Conversion |
6 | VAC_ADC_DIS | R/W | 0h | Y | N | N/A | |
5 | VOUT_ADC_DIS | R/W | 0h | Y | N | N/A | |
4 | VBAT_ADC_DIS | R/W | 0h | Y | N | N/A | |
3 | IBAT_ADC_DIS | R/W | 0h | Y | N | N/A | |
2 | TSBUS_ADC_DIS | R/W | 0h | Y | N | N/A | |
1 | TSBAT_ADC_DIS | R/W | 0h | Y | N | N/A | |
0 | TDIE_ADC_DIS | R/W | 0h | Y | N | N/A |
IBUS_ADC1 is shown in Figure 9-35 and described in Table 9-28.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
IBUS_POL | IBUS_ADC[14:8] | ||||||
R-x | R-x | ||||||
Bit | Field | Type | Reset or Default | Reset By REG_RST | Reset By WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | IBUS_POL | R | x | Y | N/A | N/A | Reported in Two's Complement. 0 = Result is positive 1 = Result is negative |
6 | IBUS_ADC[14] | R | x | Y | N/A | 16384 mA | Current of IBUS |
5 | IBUS_ADC[13] | R | x | Y | N/A | 8192 mA | |
4 | IBUS_ADC[12] | R | x | Y | N/A | 4096 mA | |
3 | IBUS_ADC[11] | R | x | Y | N/A | 2048 mA | |
2 | IBUS_ADC[10] | R | x | Y | N/A | 1024 mA | |
1 | IBUS_ADC[9] | R | x | Y | N/A | 512 mA | |
0 | IBUS_ADC[8] | R | x | Y | N/A | 256 mA |
IBUS_ADC0 is shown in Figure 9-36 and described in Table 9-29.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
IBUS_ADC[7:0] | |||||||
R-x | |||||||
Bit | Field | Type | Reset or Default | Reset By REG_RST | Reset By WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | IBUS_ADC[7] | R | x | Y | N/A | 128 mA | |
6 | IBUS_ADC[6] | R | x | Y | N/A | 64 mA | |
5 | IBUS_ADC[5] | R | x | Y | N/A | 32 mA | |
4 | IBUS_ADC[4] | R | x | Y | N/A | 16 mA | |
3 | IBUS_ADC[3] | R | x | Y | N/A | 8 mA | |
2 | IBUS_ADC[2] | R | x | Y | N/A | 4 mA | |
1 | IBUS_ADC[1] | R | x | Y | N/A | 2 mA | |
0 | IBUS_ADC[0] | R | x | Y | N/A | 1 mA |
VBUS_ADC1 is shown in Figure 9-37 and described in Table 9-30.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
VBUS_POL | VBUS_ADC[14:8] | ||||||
R-x | R-x | ||||||
Bit | Field | Type | Reset or Default | Reset By REG_RST | Reset By WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | VBUS_POL | R | x | Y | N/A | N/A | Reported in Two's Complement. 0 = Result is positive 1 = Result is negative |
6 | VBUS_ADC[14] | R | x | Y | N/A | 16384 mV | Voltage of VBUS |
5 | VBUS_ADC[13] | R | x | Y | N/A | 8192 mV | |
4 | VBUS_ADC[12] | R | x | Y | N/A | 4096 mV | |
3 | VBUS_ADC[11] | R | x | Y | N/A | 2048 mV | |
2 | VBUS_ADC[10] | R | x | Y | N/A | 1024 mV | |
1 | VBUS_ADC[9] | R | x | Y | N/A | 512 mV | |
0 | VBUS_ADC[8] | R | x | Y | N/A | 256 mV |
VBUS_ADC0 is shown in Figure 9-38 and described in Table 9-31.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
VBUS_ADC[7:0] | |||||||
R-x | |||||||
Bit | Field | Type | Reset or Default | Reset By REG_RST | Reset By WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | VBUS_ADC[7] | R | x | Y | N/A | 128 mV | |
6 | VBUS_ADC[6] | R | x | Y | N/A | 64 mV | |
5 | VBUS_ADC[5] | R | x | Y | N/A | 32 mV | |
4 | VBUS_ADC[4] | R | x | Y | N/A | 16 mV | |
3 | VBUS_ADC[3] | R | x | Y | N/A | 8 mV | |
2 | VBUS_ADC[2] | R | x | Y | N/A | 4 mV | |
1 | VBUS_ADC[1] | R | x | Y | N/A | 2 mV | |
0 | VBUS_ADC[0] | R | x | Y | N/A | 1 mV |
VAC_ADC1 is shown in Figure 9-39 and described in Table 9-32.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
VAC_POL | VAC_ADC[14:8] | ||||||
R-x | R-x | ||||||
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | VAC_POL | R | x | Y | N/A | N/A | Reported in Two's Complement. 0 = Result is positive 1 = Result is negative |
6 | VAC_ADC[14] | R | x | Y | N/A | 16384 mV | Voltage of VAC |
5 | VAC_ADC[13] | R | x | Y | N/A | 8192 mV | |
4 | VAC_ADC[12] | R | x | Y | N/A | 4096 mV | |
3 | VAC_ADC[11] | R | x | Y | N/A | 2048 mV | |
2 | VAC_ADC[10] | R | x | Y | N/A | 1024 mV | |
1 | VAC_ADC[9] | R | x | Y | N/A | 512 mV | |
0 | VAC_ADC[8] | R | x | Y | N/A | 256 mV |
VAC_ADC0 is shown in Figure 9-40 and described in Table 9-33.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
VAC_ADC[7:0] | |||||||
R-x | |||||||
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | VAC_ADC[7] | R | x | Y | N/A | 128 mV | |
6 | VAC_ADC[6] | R | x | Y | N/A | 64 mV | |
5 | VAC_ADC[5] | R | x | Y | N/A | 32 mV | |
4 | VAC_ADC[4] | R | x | Y | N/A | 16 mV | |
3 | VAC_ADC[3] | R | x | Y | N/A | 8 mV | |
2 | VAC_ADC[2] | R | x | Y | N/A | 4 mV | |
1 | VAC_ADC[1] | R | x | Y | N/A | 2 mV | |
0 | VAC_ADC[0] | R | x | Y | N/A | 1 mV |
VOUT_ADC1 is shown in Figure 9-41 and described in Table 9-34.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
VOUT_POL | VOUT_ADC[14:8] | ||||||
R-x | R-x | ||||||
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | VOUT_POL | R | x | Y | N/A | N/A | Reported in Two's Complement. 0 = Result is positive 1 = Result is negative |
6 | VOUT_ADC[14] | R | x | Y | N/A | 16384 mV | Voltage of VOUT |
5 | VOUT_ADC[13] | R | x | Y | N/A | 8192 mV | |
4 | VOUT_ADC[12] | R | x | Y | N/A | 4096 mV | |
3 | VOUT_ADC[11] | R | x | Y | N/A | 2048 mV | |
2 | VOUT_ADC[10] | R | x | Y | N/A | 1024 mV | |
1 | VOUT_ADC[9] | R | x | Y | N/A | 512 mV | |
0 | VOUT_ADC[8] | R | x | Y | N/A | 256 mV |
VOUT_ADC0 is shown in Figure 9-42 and described in Table 9-35.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
VOUT_ADC[7:0] | |||||||
R-x | |||||||
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | VOUT_ADC[7] | R | x | Y | N/A | 128 mV | |
6 | VOUT_ADC[6] | R | x | Y | N/A | 64 mV | |
5 | VOUT_ADC[5] | R | x | Y | N/A | 32 mV | |
4 | VOUT_ADC[4] | R | x | Y | N/A | 16 mV | |
3 | VOUT_ADC[3] | R | x | Y | N/A | 8 mV | |
2 | VOUT_ADC[2] | R | x | Y | N/A | 4 mV | |
1 | VOUT_ADC[1] | R | x | Y | N/A | 2 mV | |
0 | VOUT_ADC[0] | R | x | Y | N/A | 1 mV |
VBAT_ADC1 is shown in Figure 9-43 and described in Table 9-36.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
VBAT_POL | VBAT_ADC[14:8] | ||||||
R-x | R-x | ||||||
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | VBAT_POL | R | x | Y | N/A | N/A | Reported in Two's Complement. 0 = Result is positive 1 = Result is negative |
6 | VBAT_ADC[14] | R | x | Y | N/A | 16384 mV | Voltage of VBAT |
5 | VBAT_ADC[13] | R | x | Y | N/A | 8192 mV | |
4 | VBAT_ADC[12] | R | x | Y | N/A | 4096 mV | |
3 | VBAT_ADC[11] | R | x | Y | N/A | 2048 mV | |
2 | VBAT_ADC[10] | R | x | Y | N/A | 1024 mV | |
1 | VBAT_ADC[9] | R | x | Y | N/A | 512 mV | |
0 | VBAT_ADC[8] | R | x | Y | N/A | 256 mV |
VBAT_ADC0 is shown in Figure 9-44 and described in Table 9-37.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
VBAT_ADC[7:0] | |||||||
R-x | |||||||
Bit | Field | Type | Reset | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | VBAT_ADC[7] | R | x | Y | N/A | 128 mV | |
6 | VBAT_ADC[6] | R | x | Y | N/A | 64 mV | |
5 | VBAT_ADC[5] | R | x | Y | N/A | 32 mV | |
4 | VBAT_ADC[4] | R | x | Y | N/A | 16 mV | |
3 | VBAT_ADC[3] | R | x | Y | N/A | 8 mV | |
2 | VBAT_ADC[2] | R | x | Y | N/A | 4 mV | |
1 | VBAT_ADC[1] | R | x | Y | N/A | 2 mV | |
0 | VBAT_ADC[0] | R | x | Y | N/A | 1 mV |
IBAT_ADC1 is shown in Figure 9-45 and described in Table 9-38.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
IBAT_POL | IBAT_ADC[14:8] | ||||||
R-x | R-x | ||||||
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | IBAT_POL | R | x | Y | N/A | N/A | Positive is charging and negative is discharging. Reported in Two's Complement. 0 = Result is positive 1 = Result is negative |
6 | IBAT_ADC[14] | R | x | Y | N/A | 16384 mA | Current of IBAT |
5 | IBAT_ADC[13] | R | x | Y | N/A | 8192 mA | |
4 | IBAT_ADC[12] | R | x | Y | N/A | 4096 mA | |
3 | IBAT_ADC[11] | R | x | Y | N/A | 2048 mA | |
2 | IBAT_ADC[10] | R | x | Y | N/A | 1024 mA | |
1 | IBAT_ADC[9] | R | x | Y | N/A | 512 mA | |
0 | IBAT_ADC[8] | R | x | Y | N/A | 256 mA |
IBAT_ADC0 is shown in Figure 9-46 and described in Table 9-39.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
IBAT_ADC[7:0] | |||||||
R-x | |||||||
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | IBAT_ADC[7] | R | x | Y | N/A | 128 mA | |
6 | IBAT_ADC[6] | R | x | Y | N/A | 64 mA | |
5 | IBAT_ADC[5] | R | x | Y | N/A | 32 mA | |
4 | IBAT_ADC[4] | R | x | Y | N/A | 16 mA | |
3 | IBAT_ADC[3] | R | x | Y | N/A | 8 mA | |
2 | IBAT_ADC[2] | R | x | Y | N/A | 4 mA | |
1 | IBAT_ADC[1] | R | x | Y | N/A | 2 mA | |
0 | IBAT_ADC[0] | R | x | Y | N/A | 1 mA |
TSBUS_ADC1 is shown in Figure 9-47 and described in Table 9-40.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
TSBUS_POL | TSBUS_ADC[14:8] | ||||||
R-x | R-x | ||||||
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | TSBUS_POL | R | x | Y | N/A | N/A | Reported in Two's Complement. 0 = Result is positive 1 = Result is negative |
6 | TSBUS_ADC[14] | R | x | Y | N/A | TSBUS Pin Voltage as a Percentage of VOUT TSBUS Percentage = TSBUS_ADC[8:0] x 0.09766% | |
5 | TSBUS_ADC[13] | R | x | Y | N/A | ||
4 | TSBUS_ADC[12] | R | x | Y | N/A | ||
3 | TSBUS_ADC[11] | R | x | Y | N/A | ||
2 | TSBUS_ADC[10] | R | x | Y | N/A | ||
1 | TSBUS_ADC[9] | R | x | Y | N/A | 50% | |
0 | TSBUS_ADC[8] | R | x | Y | N/A | 25% |
TSBUS_ADC0 is shown in Figure 9-48 and described in Table 9-41.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
TSBUS_ADC[7:0] | |||||||
R-x | |||||||
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | TSBUS_ADC[7] | R | x | Y | N/A | 12.5% | |
6 | TSBUS_ADC[6] | R | x | Y | N/A | 6.25% | |
5 | TSBUS_ADC[5] | R | x | Y | N/A | 3.125% | |
4 | TSBUS_ADC[4] | R | x | Y | N/A | 1.5625% | |
3 | TSBUS_ADC[3] | R | x | Y | N/A | 0.78125% | |
2 | TSBUS_ADC[2] | R | x | Y | N/A | 0.39063% | |
1 | TSBUS_ADC[1] | R | x | Y | N/A | 0.19531% | |
0 | TSBUS_ADC[0] | R | x | Y | N/A | 0.09766% |
TSBAT_ADC1 is shown in Figure 9-49 and described in Table 9-42.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
TSBAT_POL | TSBAT_ADC[14:8] | ||||||
R-x | R-x | ||||||
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | TSBAT_POL | R | x | Y | N/A | N/A | Reported in Two's Complement. 0b = Result is positive 1b = Result is negative |
6 | TSBAT_ADC[14] | R | x | Y | N/A | ||
5 | TSBAT_ADC[13] | R | x | Y | N/A | ||
4 | TSBAT_ADC[12] | R | x | Y | N/A | ||
3 | TSBAT_ADC[11] | R | x | Y | N/A | ||
2 | TSBAT_ADC[10] | R | x | Y | N/A | ||
1 | TSBAT_ADC[9] | R | x | Y | N/A | 50% | |
0 | TSBAT_ADC[8] | R | x | Y | N/A | 25% |
TSBAT_ADC0 is shown in Figure 9-50 and described in Table 9-43.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
TSBAT_ADC[7:0] | |||||||
R-x | |||||||
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | TSBAT_ADC[7] | R | x | Y | N/A | 12.5% | TSBAT Pin Voltage as a Percentage of VOUT TSBAT Percentage = TSBAT_ADC[8:0] x 0.09766% |
6 | TSBAT_ADC[6] | R | x | Y | N/A | 6.25% | |
5 | TSBAT_ADC[5] | R | x | Y | N/A | 3.125% | |
4 | TSBAT_ADC[4] | R | x | Y | N/A | 1.5625% | |
3 | TSBAT_ADC[3] | R | x | Y | N/A | 0.78125% | |
2 | TSBAT_ADC[2] | R | x | Y | N/A | 0.39063% | |
1 | TSBAT_ADC[1] | R | x | Y | N/A | 0.19531% | |
0 | TSBAT_ADC[0] | R | x | Y | N/A | 0.09766% |
TDIE_ADC1 is shown in Figure 9-51 and described in Table 9-44.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
TDIE_POL | TDIE_ADC[14:8] | ||||||
R-x | R-x | ||||||
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | TDIE_POL | R | x | Y | N/A | N/A | Reported in Two's Complement. 0 = Result is positive 1 = Result is negative |
6 | TDIE_ADC[14] | R | x | Y | N/A | DIE Temperature = 5°C + TDIE_ADC[8:0] * 0.5°C | |
5 | TDIE_ADC[13] | R | x | Y | N/A | ||
4 | TDIE_ADC[12] | R | x | Y | N/A | ||
3 | TDIE_ADC[11] | R | x | Y | N/A | ||
2 | TDIE_ADC[10] | R | x | Y | N/A | ||
1 | TDIE_ADC[9] | R | x | Y | N/A | ||
0 | TDIE_ADC[8] | R | x | Y | N/A | 128°C |
TDIE_ADC0 is shown in Figure 9-52 and described in Table 9-45.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
TDIE_ADC[7:0] | |||||||
R-x | |||||||
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | TDIE_ADC[7] | R | x | Y | N/A | 64°C | |
6 | TDIE_ADC[6] | R | x | Y | N/A | 32°C | |
5 | TDIE_ADC[5] | R | x | Y | N/A | 16°C | |
4 | TDIE_ADC[4] | R | x | Y | N/A | 8°C | |
3 | TDIE_ADC[3] | R | x | Y | N/A | 4°C | |
2 | TDIE_ADC[2] | R | x | Y | N/A | 2°C | |
1 | TDIE_ADC[1] | R | x | Y | N/A | 1°C | |
0 | TDIE_ADC[0] | R | x | Y | N/A | 0.5°C |
TSBUS_FLT1 is shown in Figure 9-53 and described in Table 9-46.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
TSBUS_FLT[7:0] | |||||||
R/W-75h | |||||||
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | TSBUS_FLT[7] | R/W | 0h | Y | N | 25.00% | TSBUS Percentage Fault Threshold A TSBUS_TSBAT_ALM interrupt will be sent when TSBUS is within 5% of the value set in this register TSBUS_FLT = TSBUS_FLT[7:0] x 0.19531% Default: 4.1% (b00010101) |
6 | TSBUS_FLT[6] | R/W | 0h | Y | N | 12.5% | |
5 | TSBUS_FLT[5] | R/W | 0h | Y | N | 6.25% | |
4 | TSBUS_FLT[4] | R/W | 1h | Y | N | 3.125% | |
3 | TSBUS_FLT[3] | R/W | 0h | Y | N | 1.5625% | |
2 | TSBUS_FLT[2] | R/W | 1h | Y | N | 0.78125% | |
1 | TSBUS_FLT[1] | R/W | 0h | Y | N | 0.39063% | |
0 | TSBUS_FLT[0] | R/W | 1h | Y | N | 0.19531% |
TSBAT_FLT0 is shown in Figure 9-54 and described in Table 9-47.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
TSBAT_FLT[7:0] | |||||||
R/W-75h | |||||||
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | TSBAT_FLT[7] | R/W | 0 | Y | N | 25.00% | TSBAT Percentage Fault Threshold A TSBUS_TSBAT_ALM interrupt will be sent when TSBAT is within 5% of the value set in this register. TSBAT_FLT = TSBAT_FLT[7:0] x 0.19531% Default: 4.1% (b00010101) |
6 | TSBAT_FLT[6] | R/W | 0 | Y | N | 12.5% | |
5 | TSBAT_FLT[5] | R/W | 0 | Y | N | 6.25% | |
4 | TSBAT_FLT[4] | R/W | 1 | Y | N | 3.125% | |
3 | TSBAT_FLT[3] | R/W | 0 | Y | N | 1.5625% | |
2 | TSBAT_FLT[2] | R/W | 1 | Y | N | 0.78125% | |
1 | TSBAT_FLT[1] | R/W | 0 | Y | N | 0.39063% | |
0 | TSBAT_FLT[0] | R/W | 1 | Y | N | 0.19531% |
TDIE_ALM is shown in Figure 9-55 and described in Table 9-48.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
TDIE_ALM[7:0] | |||||||
R/W-A8h | |||||||
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | TDIE_ALM[7] | R/W | 1h | Y | N | 64°C | TDIE Voltage Fault Threshold If the value written to the register is greater than the max or less than the min defined value, the register will be set to the maximum or minimum as necessary. TDIE_ALM = 30 + TDIE_FLT[7:0] x 0.5°C Default: 125C (b11001000) |
6 | TDIE_ALM[6] | R/W | 1h | Y | N | 32°C | |
5 | TDIE_ALM[5] | R/W | 0h | Y | N | 16°C | |
4 | TDIE_ALM[4] | R/W | 0h | Y | N | 8°C | |
3 | TDIE_ALM[3] | R/W | 1h | Y | N | 4°C | |
2 | TDIE_ALM[2] | R/W | 0h | Y | N | 2°C | |
1 | TDIE_ALM[1] | R/W | 0h | Y | N | 1°C | |
0 | TDIE_ALM[0] | R/W | 0h | Y | N | 0.5°C |
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
SS_TIMEOUT_SET2 | SS_TIMEOUT_SET1 | SS_TIMEOUT_SET0 | RESERVED | VOUT_OVP_DIS | IBUS_UCP_RISE_THRE | SET_IBAT_SNS_RES | VAC_PD_EN |
R/W - 0h | R-x | R/W - 0h |
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | SS_TIMEOUT_SET2 | R/W | 0h | N | N | N/A | Adjustable timeout for IBUS to rise to IBUS_UCP_RISE_THRESH 000: Timeout Disabled 001: 12.5 ms 010: 25 ms 011: 50 ms 100: 100 ms 101: 400 ms 110: 1.5 s 111: 100 s |
6 | SS_TIMEOUT_SET1 | R/W | 0h | N | N | N/A | |
5 | SS_TIMEOUT_SET0 | R/W | 0h | N | N | N/A | |
4 | RESERVED | R | x | N | N | N/A | RESERVED |
3 | VOUT_OVP_DIS | R/W | 0h | N | N | N/A | This register disables the VOUT_OVP function. |
2 | IBUS_UCP_RISE_THRESH | R/W | 0h | Y | N | N/A | This is the threshold above which the BUS current must rise to within the SS_TIMEOUT. The value can only be changed prior to enabling switching.0: 300 mA rising, 150 mA falling (typ)1: 500 mA rising, 250 mA falling (typ) |
1 | SET_IBAT_SNS_RES | R/W | 0h | N | N | N/A | This bit selects the external BAT_SNS resistor value. 0: 2 mΩ 1: 5 mΩ |
0 | VAC_PD_EN | R/W | 0h | Y | N | N/A | When this bit is enabled, it pulls down the VAC for tVAC_PD to discharge any bulk input cap on VAC. |
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
RESERVED | VOUT_OVP_STAT | ||||||
R-x |
LEGEND: R/W = Read/Write; R = Read only; -n = value after reset |
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7-1 | RESERVED | R | x | N | N | N/A | RESERVED |
0 | VOUT_OVP_STAT | R | x | N | N | N/A | Ths bit is set when VOUT_OVP is active. It is cleared when VOUT_OVP is no longer active. |
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
RESERVED | VOUT_OVP_FLAG | RESERVED | VOUT_OVP_MASK | ||||
R-X | R/W-0h |
LEGEND: R/W = Read/Write; R = Read only; -n = value after reset |
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7-5 | RESERVED | R | x | N | N | N/A | RESERVED |
4 | VOUT_OVP_FLAG | R | x | N | N | N/A | This bit is set when VOUT_OVP has been active. It is cleared by a read and VOUT_OVP is no longer active. |
3-1 | RESERVED | R | x | N | N | N/A | RESERVED |
0 | VOUT_OVP_MASK | R/W | 0h | Y | N | N/A | This register masks the interrupt when the part enters exceeds the VOUT_OVP threshold000REG. |
PULSE_MODE is shown in Figure 9-59 and described in Table 9-52.
Return to Summary Table.
All bits are RESET BY REG_RST.
7 | 6 | 5 | 4 | 3 | 2 | 1 | 0 |
RESERVED | VBUS_ERROR_LO_DG_SET | IBUS_LOW_DG_SET | RESERVED | ||||
R/W-0h | R/W-0h | R/W-0h | R/W-0h |
Bit | Field | Type | Reset or Default | Reset by REG_RST | Reset by WATCHDOG | Bit Value | Description |
---|---|---|---|---|---|---|---|
7 | RESERVED | 0h | |||||
6 | 0h | ||||||
5 | 0h | ||||||
4 | VBUS_ERROR_LO_DG_SET | R/W | 0h | Y | N | N/A | This bit sets the deglitch time for VBUS_ERROR_LO0: 10 µs, 1: 10 ms |
3 | IBUS_LOW_DG_SET | R/W | 0h | Y | N | N/A | Ths bit sets the deglitch time for IBUS_LOW_DG_SET0: 10 µs, 1: 5 ms |
2 | RESERVED | 0h | |||||
1 | 0h | ||||||
0 | 0h |