0324596 HOUSING,Lower mount,port EVINRUDE
BE4RDHEDS, BE5DREDS, BE5DREUC, BE6DRECR, BE6DREDS, BE6DREUC, BE8RCB, BE8RCH, BE8RCLT, BE8REDS, E4RDHCCS, E4RDHCDE, E4RDHCEC, E4RDHCUD, E4RDHEIA, E4RDHENM, E4RDHEOD, E4RDHERE, E4RDHESR, E4RDHETB, E5DRECR, E5RCIC, E5RCSS, E5RHCNR, E5RHCTA, E6RCCS, E6RC
HOUSING
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Compatible models:
BE4RDHEDS
BE5DREDS
BE5DREUC
BE6DRECR
BE6DREDS
BE6DREUC
BE8RCB
BE8RCH
BE8RCLT
BE8REDS
E4RDHCCS
E4RDHCDE
E4RDHCEC
E4RDHCUD
E4RDHEIA
E4RDHENM
E4RDHEOD
E4RDHERE
E4RDHESR
E4RDHETB
E5DRECR
E5RCIC
E5RCSS
E5RHCNR
E5RHCTA
E6RCCS
E6RCDE
E6RCEC
E6RCOB
E6RCRM
E6RCUD
E6REIA
E6RENM
E6REOD
E6RERE
E6RESR
E6RETB
E8DREEA
E8DRSSM
E8RCCS
E8RCDE
E8RCEC
E8RCIC
E8RCNR
E8RCOB
E8RCRM
E8RCSS
E8RCTA
E8RCUD
E8RECR
E8REIA
E8RENM
E8REOD
E8RERE
E8RESR
E8RETB
E8REUC
E8WREES
E8WRLSIR
E8WRLSSC
EVINRUDE
BRP EVINRUDE entire parts catalog list:
- MIDSECTION » 0324596
BE5DREUC, BE5DRLEUC 1997
BE6DRECR, BE6DRLECR, E6RECR, E6RLECR 1998
BE6DREDS, BE6DRLEDS, BE6REDS, BE6RLEDS, E6REDS, E6RLEDS, E6SLEDS 1996
BE6DREUC, BE6DRLEUC, E6REUC, E6RLEUC 1997
BE8RCB, BE8RCLB 1997
BE8RCH, BE8RCLH 1996
BE8RCLT, BE8RCT 1998
BE8REDS, BE8RLEDS, BE8SRLEDS, E8REDS, E8RLEDS, E8SRLEDS 1996
E4RDHCCS, E4RDHLCCS 1988
E4RDHCDE 1986
E4RDHCEC, E4RDHLCEC 1989
E4RDHCUD, E4RDHLCUD 1987
E4RDHEIA, E4RDHLEIA 1991
E4RDHENM, E4RDHLENM 1992
E4RDHEOD, E4RDHLEOD 1995
E4RDHERE, E4RDHLERE 1994
E4RDHESR, E4RDHLESR 1990
E4RDHETB, E4RDHLETB 1993
E5DRECR, E5DRLECR 1998
E5RCIC, E5RHCIC, E5RHLCIC, E5RLCIC 1981
E5RCSS, E5RHCSS, E5RHLCSS, E5RLCSS 1980
E5RHCNR, E5RHLCNR 1982
E5RHCTA, E5RHLCTA 1983
E6RCCS, E6RLCCS, E6SLCCS 1988
E6RCDE, E6RLCDE, E6SLCDE 1986
E6RCEC, E6RLCEC, E6SLCEC 1989
E6RCOB, E6RLCOB, E6SLCOB 1985
E6RCRM, E6RLCRM, E6SLCRM 1984
E6RCUD, E6RLCUD, E6SLCUD 1987
E6REIA, E6RLEIA, E6SLEIA 1991
E6RENM, E6RLENM, E6SLENM 1992
E6REOD, E6RLEOD, E6SLEOD 1995
E6RERE, E6RLERE, E6SLERE 1994
E6RESR, E6RLESR, E6SLESR 1990
E6RETB, E6RLETB, E6SLETB 1993
E8DREEA 1999
E8DRSSM 2000
E8RCCS, E8RLCCS, E8SRLCCS 1988
E8RCDE, E8RLCDE, E8SRLCDE 1986
E8RCEC, E8RLCEC, E8SRLCEC, TE8RCEC, TE8RLCEC 1989
E8RCIC, E8RLCIC 1981
E8RCNR, E8RLCNR, E8SRLCNR 1982
E8RCOB, E8RLCOB, E8SRLCOB 1985
E8RCRM, E8RLCRM, E8SRLCRM 1984
E8RCSS, E8RLCSS 1980
E8RCTA, E8RLCTA, E8SRLCTA 1983
E8RCUD, E8RLCUD, E8SRLCUD 1987
E8RECR, E8RLECR, E8SRLECA 1998
E8REIA, E8RLEIA, E8SRLEIA 1991
E8RENM, E8RLENM, E8SRLENM 1992
E8REOD, E8RLEOD, E8SRLEOD 1995
E8RERE, E8RLERE, E8SRLERE 1994
E8RESR, E8RLESR, E8SRLESR, TE8RLESCF 1990
E8RETB, E8RLETB, E8SRLETB 1993
E8REUC, E8RLEUC, E8SRLEUC 1997
E8WREES, E8WRLEES 1999
E8WRLSIR, E8WRSIR 2001
E8WRLSSC, E8WRSSC 2000
Information:
Electronic Controls
Electronic Control Module
The ECM consists of two main components, the control computer (hardware) and the flash file (software). The control computer consists of a microprocessor and electronic circuitry. The flash file contains the engine's operational characteristics. The operating maps influence the engine's performance.Engine Governor
The engine ECM governs engine speed. The engine ECM and the flash file work together by controlling the amount of fuel that is delivered by the injectors. Desired engine rpm is determined by the throttle position sensor signal and certain sensor readings. Diagnostic codes may derate the engine. Actual engine rpm is measured by the engine speed/timing signal.Fuel Injection
The engine ECM controls the timing and the duration of the fuel that is injected. The engine ECM varies the signals to the fuel injectors. Fuel is injected only while an injector solenoid is energized by a 105 volt signal from the engine ECM. The timing of the injection signal determines the engine timing. The length of the injection signal determines engine speed. By controlling the timing and duration of the 105 volt signal, the ECM controls the engine speed.Injection timing depends on the following conditions: desired engine rpm and load. The ECM detects the top center of each cylinder. The ECM sends an injection signal at the desired time.Cold Cylinder Cutout
During a cold start or extended periods at low idle, the engine ECM will automatically turn off one unit injector at a time in order to determine if the cylinder is firing. If the ECM determines that the cylinder is not firing, the ECM turns off the unit injector. If the ECM determines that the cylinder is firing, the ECM turns on the unit injector. This strategy improves engine starting. This strategy reduces the following: white smoke, the use of ether injection and warm-up time.Cold Mode Operation
Cold Mode operation automatically stops fuel injection to cylinders that are not firing. Cold Mode operation has the following benefits: increased startability, reduced warm up period and reduced white smoke. The cold cylinder cutout strategy is activated whenever the engine coolant temperature falls below 63 °C (145 °F) and the following conditions are met:
An engine without the ether option has been running for ten seconds.
Ether injection has been completed for three seconds.
The engine has been idling for ten minutes.The engine will exit the cold cylinder cutout strategy for ten minutes under the following conditions:
Engine speed drops 50 rpm below low idle.
The throttle switch position is changed.The engine will exit the cold cylinder cutout strategy under the following conditions:
The coolant temperature rises above 70 °C (158 °F).
The Cylinder Cutout Test on the Caterpillar Electronic Technician (ET) is activated.FRC Limit
The flash file inside the engine ECM sets certain limits on the amount of fuel that can be injected. The FRC limit is a limit that is based on the boost pressure. The boost pressure is calculated as the difference in pressure between atmospheric pressure and turbocharger outlet pressure. The FRC limit is used to control the air/fuel ratio for control of emissions. When the engine ECM senses a higher boost pressure, the engine ECM increases the FRC limit. A higher boost pressure indicates that there is more air in the cylinder. When the engine ECM increases the FRC limit, the engine ECM allows more fuel into the cylinder.Rated Fuel Position
The rated fuel position is a limit that is based on the power rating of the engine. The rated fuel position is similar to the rack stops and the torque spring on a mechanically governed engine. The rated fuel position determines maximum power and torque values for a specific engine family and a specific rating. The rated fuel position is programmed into the flash file at the factory.Electronic Governor
Illustration 1 g01214361Engine Wiring Diagram
Illustration 2 g01225570Location of the 3508C Engine Sensors
Illustration 3 g01217406
Left side view
(1) Coolant temperature sensor
(2) Electronic monitoring system
(3) Left air shutoff
(4) Left exhaust temperature sensor
(5) Crankcase pressure sensor
(6) "Connector "A""
(7) "Connector "B""
(8) Service tool connector
(9) Customer connector (40 pin)
(10) Customer connector (24 pin)
(11) Starting motors
(12) Engine speed/timing sensor
Illustration 4 g01217407
Right side view
(13) Right exhaust temperature sensor
(14) Right air shutoff
(15) Filtered engine oil pressure sensor
(16) Filtered fuel pressure sensor
(17) Unfiltered fuel pressure sensor
(18) Air start solenoid
(19) Ether starting aid
Illustration 5 g01217415
Front and rear view
(20) Unfiltered engine oil pressure sensor
(21) Turbocharger compressor outlet pressure sensor
(22) Atmospheric pressure sensor
(23) Left turbocharger inlet pressure sensor
(24) Right turbocharger inlet pressure sensor
(25) J1/P1 ECM connector
(26) ECM
(27) J2/P2 ECM connector Location of the 3512C Engine Sensors
Electronic Control Module
The ECM consists of two main components, the control computer (hardware) and the flash file (software). The control computer consists of a microprocessor and electronic circuitry. The flash file contains the engine's operational characteristics. The operating maps influence the engine's performance.Engine Governor
The engine ECM governs engine speed. The engine ECM and the flash file work together by controlling the amount of fuel that is delivered by the injectors. Desired engine rpm is determined by the throttle position sensor signal and certain sensor readings. Diagnostic codes may derate the engine. Actual engine rpm is measured by the engine speed/timing signal.Fuel Injection
The engine ECM controls the timing and the duration of the fuel that is injected. The engine ECM varies the signals to the fuel injectors. Fuel is injected only while an injector solenoid is energized by a 105 volt signal from the engine ECM. The timing of the injection signal determines the engine timing. The length of the injection signal determines engine speed. By controlling the timing and duration of the 105 volt signal, the ECM controls the engine speed.Injection timing depends on the following conditions: desired engine rpm and load. The ECM detects the top center of each cylinder. The ECM sends an injection signal at the desired time.Cold Cylinder Cutout
During a cold start or extended periods at low idle, the engine ECM will automatically turn off one unit injector at a time in order to determine if the cylinder is firing. If the ECM determines that the cylinder is not firing, the ECM turns off the unit injector. If the ECM determines that the cylinder is firing, the ECM turns on the unit injector. This strategy improves engine starting. This strategy reduces the following: white smoke, the use of ether injection and warm-up time.Cold Mode Operation
Cold Mode operation automatically stops fuel injection to cylinders that are not firing. Cold Mode operation has the following benefits: increased startability, reduced warm up period and reduced white smoke. The cold cylinder cutout strategy is activated whenever the engine coolant temperature falls below 63 °C (145 °F) and the following conditions are met:
An engine without the ether option has been running for ten seconds.
Ether injection has been completed for three seconds.
The engine has been idling for ten minutes.The engine will exit the cold cylinder cutout strategy for ten minutes under the following conditions:
Engine speed drops 50 rpm below low idle.
The throttle switch position is changed.The engine will exit the cold cylinder cutout strategy under the following conditions:
The coolant temperature rises above 70 °C (158 °F).
The Cylinder Cutout Test on the Caterpillar Electronic Technician (ET) is activated.FRC Limit
The flash file inside the engine ECM sets certain limits on the amount of fuel that can be injected. The FRC limit is a limit that is based on the boost pressure. The boost pressure is calculated as the difference in pressure between atmospheric pressure and turbocharger outlet pressure. The FRC limit is used to control the air/fuel ratio for control of emissions. When the engine ECM senses a higher boost pressure, the engine ECM increases the FRC limit. A higher boost pressure indicates that there is more air in the cylinder. When the engine ECM increases the FRC limit, the engine ECM allows more fuel into the cylinder.Rated Fuel Position
The rated fuel position is a limit that is based on the power rating of the engine. The rated fuel position is similar to the rack stops and the torque spring on a mechanically governed engine. The rated fuel position determines maximum power and torque values for a specific engine family and a specific rating. The rated fuel position is programmed into the flash file at the factory.Electronic Governor
Illustration 1 g01214361Engine Wiring Diagram
Illustration 2 g01225570Location of the 3508C Engine Sensors
Illustration 3 g01217406
Left side view
(1) Coolant temperature sensor
(2) Electronic monitoring system
(3) Left air shutoff
(4) Left exhaust temperature sensor
(5) Crankcase pressure sensor
(6) "Connector "A""
(7) "Connector "B""
(8) Service tool connector
(9) Customer connector (40 pin)
(10) Customer connector (24 pin)
(11) Starting motors
(12) Engine speed/timing sensor
Illustration 4 g01217407
Right side view
(13) Right exhaust temperature sensor
(14) Right air shutoff
(15) Filtered engine oil pressure sensor
(16) Filtered fuel pressure sensor
(17) Unfiltered fuel pressure sensor
(18) Air start solenoid
(19) Ether starting aid
Illustration 5 g01217415
Front and rear view
(20) Unfiltered engine oil pressure sensor
(21) Turbocharger compressor outlet pressure sensor
(22) Atmospheric pressure sensor
(23) Left turbocharger inlet pressure sensor
(24) Right turbocharger inlet pressure sensor
(25) J1/P1 ECM connector
(26) ECM
(27) J2/P2 ECM connector Location of the 3512C Engine Sensors
Parts housing EVINRUDE:
0324597
0324597 HOUSING,Lower mount,stbd.
BE4RDHEDS, BE5DREDS, BE5DREUC, BE6DRECR, BE6DREDS, BE6DREUC, BE8RCB, BE8RCH, BE8RCLT, BE8REDS, E4RDHCCS, E4RDHCDE, E4RDHCEC, E4RDHCUD, E4RDHEIA, E4RDHENM, E4RDHEOD, E4RDHERE, E4RDHESR, E4RDHETB, E5DRECR, E5RCIC, E5RCSS, E5RHCNR, E5RHCTA, E6RCCS, E6RC
0394337
0394337 HOUSING & NIPPLE ASSY.
B25JREUR, BE20SRECB, BE20SREDA, BE20SREUM, BE25BAECM, BE25BAEDR, BE30BAECS, BE30BAEDE, BE30BAEEC, BE30BAEUD, BE30BASIA, BE30BASSR, E105WRLEES, E105WRLSIF, E105WRLSSC, E20CRCCA, E20CRCDC, E20CRCEM, E20CRCOS, E20CRCUR, E20CREDA, E20CREIE, E20CREND, E20
0336178
0336178 HOUSING, Therm
BE10EEDD, BE10FAEDC, BE10FAEUR, BE10RELEUS, BE130TLECE, BE130TLEDM, BE130TLEUB, BE15EEDS, BE15RELEUC, BE250CXECB, BE250CXEDA, BE250CXEUM, BE40EECR, BE40EEDS, BE40EEUC, BE50BEEDS, BE50DTLEDC, BE50DTLEUR, BE50ESECC, BE50RLEUC, BE5DREDS, BE5DREUC, BE5FR
0335962
0174791
0174791 HOUSING, Valve & indicator
BE10EEDD, BE10FAEDC, BE10FDLEDR, BE15EEDS, BE15FAEDR, BE20SEEDA, BE20SREDA, BE25BAEDR, BE25EEDM, BE30BAEDE, BE30EEDE, BE40EEDS, BE50BEEDS, BE50DTLEDC, BE5FRBEUS, BE60ELEDR, BE70ELEDA, BE8FRBEDC, E10EENA, E10EEOE, E10EERB, E10EETM, E10FEXEO, E15DLEOC,
0339037
0339037 HOUSING, Starter
BE5DREDS, BE5DREUC, BE6DRECR, BE6DREDS, BE6DREUC, BE8RCB, BE8RCH, BE8RCLT, BE8REDS, E5DRECR, E6REOD, E6RERE, E6RETB, E8DREEA, E8DRSSM, E8RECR, E8REOD, E8RERE, E8RETB, E8REUC, E8WREES, E8WRLSIR, E8WRLSSC