Last Modified: 07-31-2024 6.11:8.1.0 Doc ID: RM10000000255WY
Model Year Start: 2023 Model: GR Corolla Prod Date Range: [09/2022 -           ]
Title: G16E-GTS (ENGINE CONTROL): SFI SYSTEM: P106A62,P106C62-P109E62; Evaporative Emission System Pressure / Intake Air Pressure Signal Compare Failure; 2023 - 2025 MY GR Corolla [09/2022 -        ]

DTC

P106A62

Evaporative Emission System Pressure / Intake Air Pressure Signal Compare Failure

DTC

P106C62

Evaporative Emission System Pressure/Barometric Pressure Signal Compare Failure

DTC

P106D62

Evaporative Emission System Pressure Sensor - Turbocharger/Supercharger Boost Sensor Signal Compare Failure

DTC

P109E62

EVAP System Pressure Sensor "A"/Crankcase Pressure Sensor "A" Signal Compare Failure

DESCRIPTION

Those DTCs are designed to detect a deviation in the output characteristics of a pressure sensor.

DTC No.

Detection Item

DTC Detection Condition

Trouble Area

MIL

Note

P106A62

Evaporative Emission System Pressure / Intake Air Pressure Signal Compare Failure

The difference between the pressure of the canister pressure sensor (Vapor Pressure Pump*) and No. 3 turbo pressure sensor (Intake Manifold Absolute Pressure*) is higher than 13.3 kPa (1.93 psi) (2 trip detection logic).

  • Canister pressure sensor (canister pump module)
  • No. 1 turbo pressure sensor

Comes on

SAE Code: P106A

P106C62

Evaporative Emission System Pressure/Barometric Pressure Signal Compare Failure

The difference between the pressure of the canister pressure sensor (Vapor Pressure Pump*) and atmospheric pressure sensor (Atmospheric Pressure*) is Higher than 8.2 kPa (1.19 psi) (2 trip detection logic).

  • Canister pressure sensor (canister pump module)
  • Atmospheric pressure sensor (ECM)

Comes on

SAE Code: P106C

P106D62

Evaporative Emission System Pressure Sensor - Turbocharger/Supercharger Boost Sensor Signal Compare Failure

The difference between the pressure of the canister pressure sensor (Vapor Pressure Pump*) and No. 2 turbo pressure sensor (Boost Pressure Sensor*) is Higher than 13.3 kPa (1.93 psi) (2 trip detection logic).

  • Canister pressure sensor (canister pump module)
  • No. 2 turbo pressure sensor

Comes on

SAE Code: P106D

P109E62

EVAP System Pressure Sensor "A"/Crankcase Pressure Sensor "A" Signal Compare Failure

The difference between the pressure of the canister pressure sensor (Vapor Pressure Pump*) and vacuum sensor assembly (PCV 1 Pressure*) is Higher than 10.0 kPa (1.45 psi) (2 trip detection logic).

  • Canister pressure sensor (canister pump module)
  • Vacuum sensor assembly

Comes on

SAE Code: P109E

*: Data List name

MONITOR DESCRIPTION

Those DTCs are stored when a deviation from pressure sensor characteristics is detected.

The pressure sensors* are checked approximately 50 minutes after the ignition switch is turned off. If the pressures detected by the pressure sensors* differ by a certain amount, the MIL is illuminated and a DTC is stored.

HINT:

  • *: P106A62 checks the canister pressure sensor and the No. 3 turbo pressure sensor. P106C62 checks the canister pressure sensor and atmospheric pressure sensor. P106D62 and P106F62 check the canister pressure sensor and the No. 1 turbo pressure sensor. P109E62 check the canister pressure sensor and the vacuum sensor assembly.
  • Correct judgment may not be possible when the altitude is 4000 m (13120 ft.) or more.

MONITOR STRATEGY

Related DTCs

P106A: Canister pressure sensor - manifold absolute pressure sensor correlation

P106C: Canister pressure sensor - barometric pressure sensor correlation

P106D: Canister pressure sensor - boost pressure sensor (bank 1) correlation

P109E: Canister pressure sensor - vacuumsensor assembly correlation

Required Sensors/Components (Main)

Canister pressure sensor

Atmospheric pressure sensor (ECM)

No. 1 turbo pressure sensor

No. 2 turbo pressure sensor

Vacuum sensor assembly

Required Sensors/Components (Related)

-

Frequency of Operation

Continuous

Duration

Within 65 seconds

MIL Operation

2 driving cycles

Sequence of Operation

None

TYPICAL ENABLING CONDITIONS

P106A

Monitor runs whenever the following DTCs are not stored

P0106, P0107, P0108 (Manifold absolute pressure)

P0452, P0453 (Evaporative emission system pressure sensor)

Time elapsed at after engine stop

50 minutes

Time after ECM started by soak-timer

60 seconds or more

Battery voltage

8 V or higher

Intake air temperature (mass air flow meter sub-assembly)

-10°C (14°F) or higher

Engine coolant temperature

-10°C (14°F) or higher

P106C

Time elapsed at after engine stop

50 minutes

Time after ECM started by soak-timer

60 seconds or more

Battery voltage

8 V or higher

Intake air temperature (mass air flow meter sub-assembly)

-10°C (14°F) or higher

Engine coolant temperature

-10°C (14°F) or higher

Canister pressure sensor malfunction (P0451, P0452, P0453)

Not detected

P106D

Time elapsed at after engine stop

50 minutes

Time after ECM started by soak-timer

60 seconds or more

Battery voltage

8 V or higher

Intake air temperature (mass air flow meter sub-assembly)

-10°C (14°F) or higher

Engine coolant temperature

-10°C (14°F) or higher

Canister pressure sensor malfunction (P0451, P0452, P0453)

Not detected

P109E

Time elapsed at after engine stop

50 minutes

Time after ECM started by soak-timer

60 seconds or more

Battery voltage

8 V or higher

Intake air temperature (mass air flow meter sub-assembly)

-10°C (14°F) or higher

Engine coolant temperature

-10°C (14°F) or higher

Canister pressure sensor malfunction (P0451, P0452, P0453)

Not detected

Vacuum sensor assembly malfunction (P051C, P051D)

Not detected

TYPICAL MALFUNCTION THRESHOLDS

P106A

Difference between canister pressure and manifold absolute pressure

Higher than 7.23 kPa (1.05 psi)

P106C

Difference between canister pressure and atmospheric pressure

Higher than 10 kPa (1.45 psi)

P106D

Difference between canister pressure and boost pressure sensor (bank 1)

Higher than 10 kPa (1.45 psi)

P109E

Difference between canister pressure and vacuum sensor assembly

Higher than 6.15 kPa (0.89 psi)

CONFIRMATION DRIVING PATTERN

HINT:

  • After repair has been completed, clear the DTC and then check that the vehicle has returned to normal by performing the following All Readiness check procedure.

    Click here 2023 - 2025 MY GR Corolla [09/2022 -        ]; G16E-GTS (ENGINE CONTROL): SFI SYSTEM: DTC CHECK / CLEAR

  • When clearing the permanent DTCs, refer to the "CLEAR PERMANENT DTC" procedure.

    Click here 2023 - 2025 MY GR Corolla [09/2022 -        ]; G16E-GTS (ENGINE CONTROL): SFI SYSTEM: DTC CHECK / CLEAR

  1. Connect the GTS to the DLC3.
  2. Turn the ignition switch to ON.
  3. Turn the GTS on.
  4. Clear the DTCs (even if no DTCs are stored, perform the clear DTC procedure).
  5. Turn the ignition switch off and wait for at least 30 seconds.
  6. Start the engine and idle for 10 seconds or more [A].
  7. Turn the ignition switch off.
  8. Leave the ignition switch off for 55 minutes [B].
  9. Turn the ignition switch to ON.
  10. Turn the GTS on.
  11. Enter the following menus: Powertrain / Engine / Trouble Codes [C].
  12. Read the pending DTCs.

    HINT:

    • If a pending DTC is output, the system is malfunctioning.
    • If a pending DTC is not output, perform the following procedure.
  13. Enter the following menus: Powertrain / Engine / Utility / All Readiness.
  14. Input the DTC: P106A62, P106C62, P106D62 or P109E62.
  15. Check the DTC judgment result.

    GTS Display

    Description

    NORMAL

    • DTC judgment completed
    • System normal

    ABNORMAL

    • DTC judgment completed
    • System abnormal

    INCOMPLETE

    • DTC judgment not completed
    • Perform driving pattern after confirming DTC enabling conditions

    HINT:

    • If the judgment result is NORMAL, the system is normal.
    • If the judgment result is ABNORMAL, the system is malfunctioning.
    • If the judgment result is INCOMPLETE, perform steps [A] through [C] again.
    • [A] to [C]: Normal judgment procedure.

      The normal judgment procedure is used to complete DTC judgment and also used when clearing permanent DTCs.

    • When clearing the permanent DTCs, do not disconnect the cable from the battery terminal or attempt to clear the DTCs during this procedure, as doing so will clear the universal trip and normal judgment histories.

CAUTION / NOTICE / HINT

HINT:

  • Refer to "Data List / Active Test" [Atmospheric Pressure, Intake Manifold Absolute Pressure, Vapor Pressure Pump, Boost Pressure Sensor and PCV 1 Pressure].

    Click here 2023 - 2025 MY GR Corolla [09/2022 -        ]; G16E-GTS (ENGINE CONTROL): SFI SYSTEM: DATA LIST / ACTIVE TEST

  • Read Freeze Frame Data using the GTS. The ECM records vehicle and driving condition information as Freeze Frame Data the moment a DTC is stored. When troubleshooting, Freeze Frame Data can help determine if the vehicle was moving or stationary, if the engine was warmed up or not, if the air fuel ratio was lean or rich, and other data from the time the malfunction occurred.

PROCEDURE

1.

CHECK ANY OTHER DTCS OUTPUT (IN ADDITION TO P106A62, P106C62, P106D62 AND/OR P109E62)

(a) Read the DTCs.

Powertrain > Engine > Trouble Codes

Result

Proceed to

DTC P106A62 is output

A

DTC P106C62 is output

B

DTC P106D62 is output

C

DTC P109E62 is output

D

DTC P106A62, P106C62, P106D62 and P109E62 are output

E

DTC P106A62, P106C62, P106D62 and/or P109E62 and other DTCs are output

F

HINT:

If any DTCs other than P106A62, P106C62, P106D62 and/or P109E62 are output, troubleshoot those DTCs first.

B

GO TO STEP 3

C

GO TO STEP 4

D

GO TO STEP 5

E

GO TO STEP 6

F

GO TO DTC CHART

A

2.

REPLACE NO. 1 TURBO PRESSURE SENSOR

Click here 2023 - 2025 MY GR Corolla [09/2022 -        ]; G16E-GTS (ENGINE CONTROL): MANIFOLD ABSOLUTE PRESSURE SENSOR: REMOVAL

NEXT

GO TO STEP 7

3.

REPLACE ECM (ATMOSPHERIC PRESSURE SENSOR)

Click here 2023 MY GR Corolla [09/2022 - 11/2022]; G16E-GTS (ENGINE CONTROL): ECM: REMOVAL 2023 - 2025 MY GR Corolla [11/2022 -        ]; G16E-GTS (ENGINE CONTROL): ECM: REMOVAL

NEXT

GO TO STEP 7

4.

REPLACE NO. 2 TURBO PRESSURE SENSOR

Click here 2023 - 2025 MY GR Corolla [09/2022 -        ]; G16E-GTS (ENGINE CONTROL): MANIFOLD ABSOLUTE PRESSURE SENSOR: REMOVAL

NEXT

GO TO STEP 7

5.

REPLACE VACUUM SENSOR ASSEMBLY

Click here 2023 - 2025 MY GR Corolla [09/2022 -        ]; G16E-GTS (ENGINE CONTROL): VACUUM SENSOR: REMOVAL

NEXT

GO TO STEP 7

6.

REPLACE CANISTER PUMP MODULE

Click here 2023 MY GR Corolla [09/2022 - 11/2022]; G16E-GTS (EMISSION CONTROL): CANISTER: REMOVAL 2023 - 2025 MY GR Corolla [11/2022 -        ]; G16E-GTS (EMISSION CONTROL): CANISTER: REMOVAL

NEXT

7.

CLEAR DTC

(a) Clear the DTCs.

Powertrain > Engine > Clear DTCs

(b) Turn the ignition switch off and wait for at least 30 seconds.

NEXT

8.

CONFIRM WHETHER MALFUNCTION HAS BEEN SUCCESSFULLY REPAIRED

(a) Confirm that the difference between Intake Manifold Absolute Pressure and Vapor Pressure Pump is 13.3 kPa (1.93 psi) or less.

Powertrain > Engine > Data List

Tester Display

Intake Manifold Absolute Pressure

Vapor Pressure Pump

(b) Confirm that the difference between Atmospheric Pressure and Vapor Pressure Pump is 8.2 kPa (1.19 psi) or less.

Powertrain > Engine > Data List

Tester Display

Atmospheric Pressure

Vapor Pressure Pump

(c) Confirm that the difference between PCV 1 Pressure and Vapor Pressure Pump is 13.3 kPa (1.93 psi) or less.

Powertrain > Engine > Data List

Tester Display

Vapor Pressure Pump

PCV 1 Pressure

(d) Confirm that the difference between Boost Pressure Sensor and Vapor Pressure Pump is 13.3 kPa (1.93 psi) or less.

Powertrain > Engine > Data List

Tester Display

Vapor Pressure Pump

Boost Pressure Sensor

NEXT

END