3500B Industrial Engines with the ADEM 3 Electronic Control Module Caterpillar


Event Code List

Usage:

3508B BPX

Cross-Reference Information for Event Codes

Table 1 is a list of the event codes for the engine. The event codes are cross-referenced with the appropriate troubleshooting procedure that can be used to troubleshoot the code.

Event codes are generated when abnormal operating conditions exist. A further explanation of event codes and the engine's monitoring system are described after Table 1.

Portions of this material are reprinted with permission from SAE J1939DA_201607© 2016 SAE International. SAE International is not responsible for any use or translation of this material, in whole or in part. Please contact SAE International to obtain a complete copy of SAE J1939DA_201607, the official definitive source of this standard.

Table 1
Cross-Reference from Event Codes on Cat Data Link to J1939 Code to Troubleshooting Procedure 
Code and Description  J1939 Code  Troubleshooting Procedure 
E004(3) Engine Overspeed Shutdown  190-00  Troubleshooting, "Engine Overspeed" 
E007(2) High Aftercooler Temperature Derate  (1)  Troubleshooting, "Coolant Temperature Is Too High" 
E008(3) High Aftercooler Temperature Shutdown  (1)  Troubleshooting, "Coolant Temperature Is Too High" 
E009(2) High Altitude Derate  9-6  Troubleshooting, "High Altitude Derate" 
E015(2) High Engine Coolant Temperature Derate  110-16  Troubleshooting, "Coolant Temperature Is Too High" 
E016(3) High Engine Coolant Temperature Shutdown  110-00  Troubleshooting, "Coolant Temperature Is Too High" 
E017(1) High Engine Coolant Temperature Warning  110-15  Troubleshooting, "Coolant Temperature Is Too High" 
E021(2) High Exhaust Temperature Derate  173-16  Troubleshooting, "Exhaust Temperature Is Too High" 
E031(2) Air Filter Restriction Derate  107-16  Troubleshooting, "Inlet Air Restriction" 
E038(1) Low Engine Coolant Temperature Warning  110-17  Troubleshooting, "Coolant Temperature Is Too Low" 
E040(3) Low Engine Oil Pressure Shutdown  100-00  Troubleshooting, "Low Engine Oil Pressure" 
E043(1) Low System Voltage Warning  168-17  Troubleshooting, "Electrical Power Supply" 
E095(1) Fuel Filter Restriction Warning  95-15  Troubleshooting, "Fuel Filter Restriction" 
E099(1) Engine Oil Filter Restriction Warning  (1)  Troubleshooting, "Low Engine Oil Pressure" 
E100(1) Low Engine Oil Pressure Warning  100-17  Troubleshooting, "Low Engine Oil Pressure" 
E101(1) High Crankcase Pressure Warning  101-15  Troubleshooting, "Crankcase Pressure (High)" 
E101(2) High Crankcase Pressure Derate  101-16  Troubleshooting, "Crankcase Pressure (High)" 
E101(3) High Crankcase Pressure Shutdown  101-00  Troubleshooting, "Crankcase Pressure (High)" 
E173(1) High Exhaust Temperature Warning  173-15  Troubleshooting, "Exhaust Temperature Is Too High" 
E190(1) Engine Overspeed Warning  190-00  Troubleshooting, "Engine Overspeed" 
E272(1) Inlet Air Restriction Warning  107-15  Troubleshooting, "Inlet Air Restriction" 
E279(1) High Aftercooler Temperature Warning  (1)  Troubleshooting, "Coolant Temperature Is Too High" 
E2087(3) Air Intake Shutoff Closed  (1)  Troubleshooting, "Air Shutoff System" 
E2088(1) Air Intake Shutoff Detection Circuit Detected but Not Installed  (1)  Troubleshooting, "Air Shutoff System" 
(1) No SPN-FMI codes are available at the present time.

Active Event Codes

An active event code represents a problem with engine operation. Correct the problem as soon as possible.

Active event codes are listed in ascending numerical order. The code with the lowest number is listed first.

Illustration 1 is an example of the operating range of a temperature sensor. Do not use the Illustration to troubleshoot temperature sensors.



Illustration 1g01138880
Example of the typical operating range of a temperature sensor
(1) This area represents the normal operating range of the parameter. The normal output voltage of the sensor is between 0.2 VDC and 4.2 VDC.
(2) In this area, the temperature above 107 °C (225 °F) is higher than normal. The output voltage of the sensor will generate an event code. The sensor does not have an electronic problem.
(3) In these areas, the output voltage of the sensor is too high or too low. The voltage is outside of the normal range. The electronic problem will generate a diagnostic code. Refer to Troubleshooting, "Diagnostic Code List" for additional information on diagnostic codes.

Events are represented in two formats. In the first format, the "E" means that the code is an event code. The "XXX(X)" represents a numeric identifier for the event code. This is followed by a description of the code. If a warning, a derate, or a shutdown is applicable, the numeric identifiers are different. Refer to the following example:

  • E004(3) Engine Overspeed Shutdown

  • E190(1) Engine Overspeed Warning

In the second format, the "E" means that the code is an event code. The "XXX(X)" represents a numeric identifier for the event code. The fourth "X" identifies the event as a warning, a derate, or a shutdown. This is followed by a description of the code. Refer to the following example:

  • E360(1) Low Oil Pressure Warning

  • E360(2) Low Oil Pressure Derate

  • E360(3) Low Oil Pressure Shutdown

The definition for a warning, a derate, and a shutdown are defined below:

Warning - This condition represents a serious problem with engine operation. However, this condition does not require a derate or a shutdown.

Derate - For this condition, the engine's Electronic Control Module (ECM) reduces the engine's power to help prevent possible engine damage.

Shutdown - For this condition, the ECM shuts down the engine to help prevent possible engine damage.

Logged Event Codes

When the ECM generates an event code, the ECM logs the code in permanent memory. The ECM has an internal diagnostic clock. The ECM will record the following information when an event code is generated:

  • The hour of the first occurrence of the code

  • The hour of the last occurrence of the code

  • The number of occurrences of the code

Logged events are listed in chronological order. The most recent event code is listed first.

This information can be helpful for troubleshooting intermittent problems. Logged codes can also be used to review the performance of the engine.

Clearing Event Codes

A code is cleared from memory when one of the following conditions occur:

  • The code does not recur for 100 hours.

  • A new code is logged and there are already ten codes in memory. In this case, the oldest code is cleared.

  • The service technician manually clears the code.

Always clear logged event codes after investigating and correcting the problem which generated the code.

Troubleshooting

For basic troubleshooting of the engine, perform the following steps to diagnose a malfunction:

  1. Obtain the following information about the complaint:

    • The event and the time of the event

    • Determine the conditions for the event. The conditions will include the engine rpm and the load.

    • Determine if there are any systems that were installed by the dealer or by the customer that could cause the event.

    • Determine whether any additional events occurred.

  2. Verify that the complaint is not due to normal engine operation. Verify that the complaint is not due to error of the operator.

  3. Narrow the probable cause. Consider the operator information, the conditions of operation, and the history of the engine.

  4. Perform a visual inspection. Inspect the following items:

    • Fuel supply

    • Oil level

    • Oil supply

    • Wiring

    • Connectors

Be sure to check the connectors. This is important for problems that are intermittent. Refer to Troubleshooting, "Inspecting Electrical Connectors".

If these steps do not resolve the problem, refer to Table 1 for the procedure to troubleshoot the event code.

Trip Points for the Monitoring System

The monitoring system determines the level of action that is taken by the ECM in response to a condition that can damage the engine. When any of these conditions occur, the appropriate event code will be generated.

If the monitoring system detects a parameter that has exceeded a trip point, an internal timer will be activated. The parameter must fall to a specific value below the value of the trip point to reset the timer. The difference between the specific value and the value of the trip point is called the hysteresis. If the delay time is exceeded, the monitoring system will initiate the programmed action. The engine monitoring system is enabled after the engine is started. When the engine is within 50 rpm of low idle, the ECM will check the parameters. The ECM checks for oil pressure after a ten second delay. The delay is designed to eliminate false low oil pressure warnings.

If the ECM generates an event, the event will be displayed as a "Status Flag" on the "Status" screen on Caterpillar Electronic Technician (ET). Go to the "Information" menu on Cat ET and activate the "Status" screen to see the active event. The event will be displayed across the top of the screen with the name of the ECM and serial number of the product.

Cat ET can be used to set the programmable limits of the parameters. To set the limits, go to the "Service" menu on Cat ET. Select "Monitoring System". The screen for the monitoring system has the following four columns: Parameter description, State, Trip point, and Delay time. The following list describes the four columns:

Parameter description - The function that is being monitored

State - Programmed as ON, OFF, or Always ON

Trip point - Programmed limits for safe operation

Delay time - Programmed time before action is taken.

To change the programmed limit, highlight the action or delay time and press the "Change" button. If a password is required to change the limit, the monitoring system will ask for either a "Factory Password" or a "Customer Password". Refer to the diagnostic procedure Troubleshooting, "Factory Passwords" for information on passwords.

Table 2 contains the conditions that are monitored and the default trip points for each condition. Each condition has an associated parameter. The settings for each parameter can be viewed with Cat ET. The trip points for some of the parameters may be adjustable with Cat ET.

Table 2
Trip Points for the Monitoring System 
Condition  Action  Delay Time in Seconds  Trip Point  Default State 
Min Max Default  Min  Max  Default 
E004(3) Engine Overspeed  Shutdown  1200 rpm  2400 rpm  118% of rated speed  On 
E007(2) High Aftercooler Temperature Derate  Derate  60  50 °C (122 °F)  125 °C (257 °F)  88 °C (190 °F)  On 
E008(3) High Aftercooler Temperature Shutdown  Shutdown  60  50 °C (122 °F)  125 °C (257 °F)  88 °C (190 °F)  On 
E009(2) High Altitude  Derate(1)  N/A  N/A  N/A  55 kPa (8 psi)  98 kPa (14 psi)  The ECM detects atmospheric pressure that is less than 92.5 kPa (13.4 psi).(2)  On 
E015(2) High Engine Coolant Temperature  Derate
(3) 
60  30  90 °C (194 °F)  125 °C (257 °F)  107 °C (225 °F)  On 
E016(3) High Engine Coolant Temperature  Shutdown  60  90 °C (194 °F)  125 °C (257 °F)  107 °C (225 °F)  On 
E017(1) High Engine Coolant Temperature  Warning  60  90 °C (194 °F)  125 °C (257 °F)  102 °C (216 °F)  On 
E021(2) High Exhaust Temperature  Derate(4)  60  500 °C (932 °F)  800 °C (1472 °F)  (5)  On 
E031(2) Air Filter Restriction  Derate(6)  60  1 kPa (0.14 psi)  10 kPa (1.5 psi)  7 kPa (1 psi)  On 
E038(1) Low Engine Coolant Temperature  Warning (7)  60  63 °C (145 °F)  85 °C (185 °F)  80 °C (176 °F)  On 
E040(3) Low Engine Oil Pressure  Shutdown  15  N/A  N/A  (8)(9)  On 
E043(1) Low System Voltage  Warning  30  10  20 VDC  30 VDC  20 VDC  On 
E095(1) Fuel Filter Restriction  Warning  60  50 kPag (7 psig)(9)  140 kPag (20 psig)(9)  70 kPag (10 psig)(9)  On 
E099(1) Engine Oil Filter Restriction  Warning  60  70 kPag (10 psig)(9)  140 kPag (20 psig)(9)  105 kPag (15 psig)(9)  On 
E100(1) Low Engine Oil Pressure  Warning  15  N/A  N/A  (8)(9)  On 
E101(1) High Crankcase Pressure  Warning  30  0.5 kPag (0.07 psig)(9)  6 kPag (0.9 psig)(9)  2 kPag (0.3 psig)(9)  On 
E101(2) High Crankcase Pressure  Derate(10)  60  10  0.5 kPag (0.07 psig)(9)  6 kPag (0.9 psig)(9)  6 kPag (0.9 psig)(9)  On 
E101(3) High Crankcase Pressure  Shutdown  30  0.5 kPag (0.07 psig)(9)  6 kPag (0.9 psig)(9)  3.5 kPag (0.5 psig)(9)  On 
E173(1) High Exhaust Temperature  Warning  60  500 °C (932 °F)  800 °C (1472 °F)  (6)  On 
E190(1) Engine Overspeed  Warning  1200 rpm  2400 rpm  118% of rated speed  On 
E272(1) Inlet Air Restriction  Warning  60  3 kPa (0.4 psi)  7 kPa (1 psi)  7 kPa (1 psi)  On 
E279(1) High Aftercooler Temperature Warning  Warning  60  50 °C (122 °F)  125 °C (257 °F)  84 °C (183 °F)  On 
E2087(3) Air Intake Shutoff Closed  Shutdown  N/A  N/A  N/A  N/A  N/A  On 
E2088(1) Air Intake Shutoff Detection Circuit Detected but Not Installed  Warning  N/A  N/A  N/A  N/A  N/A  On 
(1) The ECM will derate the engine in 3 percent increments for every 305 m (1000 ft) increase in elevation up to a maximum derate of 35 percent.
(2) The software sets 92.5 kPa (13.4 psi) as the default setting for the altitude derate. The correct setting for the altitude derate is dependent on the engine rating. The altitude derate is programmed at the factory.
(3) If the trip point for the derate is exceeded the derate will reduce power linearly from 0 % to a maximum of 25 % over a period of 480 seconds.
(4) If the trip point is exceeded, engine power will be derated 2% for each 15 second time period. The maximum derate is 20%.
(5) Refer to the engine's 2T specification for the default trip point.
(6) Derates power 2% per kPa to a maximum derate of 25%. This derate will not reset, if the value falls below the value of the trip point.
(7) The engine must be operated at an average load that is greater than 20 % for ten minutes. When the average load is greater than 20% and the coolant temperature is below 80 °C (176 °) for 5 seconds, a warning will occur. To deactivate the warning, the 10 minute average load must drop below 20% or the coolant temperature must be greater than 85 °C (185 °F).
(8) Refer to the oil pressure map in Illustration 2.
(9) The gauge pressure is a calculated pressure. The gauge pressure is calculated by subtracting atmospheric pressure from the absolute pressure measured by the sensor.
(10) Derates power 15% over a 480 second time period.


Illustration 2g00863970
Map of the engine oil pressure versus the engine rpm
(X) Engine rpm
(Y) Engine oil pressure in kPag
(1) Hysteresis (minimum and maximum engine oil pressure)
(2) Low engine oil pressure
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