14781-MB4-000 COTTER, VALVE (Honda Code 1416932). Honda
BF35AM LHA, BF35AM LRA, BF35AM LRTA, BF35AM SHA, BF35AM XRTA, BF40A1 LHA, BF40A1 LHTA, BF40A1 LRA, BF40A1 LRTA, BF40A1 XRTA, BF40A2 LHA, BF40A2 LHTA, BF40A2 LRA, BF40A2 LRTA, BF40A2 XRTA, BF40A3 LHA, BF40A3 LHTA, BF40A3 LRA, BF40A3 LRTA, BF40A3 XRTA,
COTTER

Price: query
Rating:
Compatible models:
BF35AM LHA
BF35AM LRA
BF35AM LRTA
BF35AM SHA
BF35AM XRTA
BF40A1 LHA
BF40A1 LHTA
BF40A1 LRA
BF40A1 LRTA
BF40A1 XRTA
BF40A2 LHA
BF40A2 LHTA
BF40A2 LRA
BF40A2 LRTA
BF40A2 XRTA
BF40A3 LHA
BF40A3 LHTA
BF40A3 LRA
BF40A3 LRTA
BF40A3 XRTA
BF40A4 LHA
BF40A4 LHTA
BF40A4 LRTA
BF40A5 LHA
BF40A5 LHTA
BF40A5 LRTA
BF40A6 LHA
BF40A6 LHTA
BF40A6 LRTA
BF40AK0 LHA
BF40AK0 LRTA
BF40AW LHA
BF40AW LHTA
BF40AW LRA
BF40AW LRTA
BF40AW XRTA
BF40AX LHA
BF40AX LHTA
BF40AX LRA
BF40AX LRTA
BF40AX XRTA
BF40AY LHA
BF40AY LHTA
BF40AY LRA
BF40AY LRTA
BF40AY XRTA
BF40DK2 LHA
BF40DK2 LRTA
BF45AM LHA
BF45AM LRA
BF45AM LRTA
BF45AM SRTA
BF45AM XRTA
BF50A1 LHTA
BF50A1 LRA
BF50A1 LRTA
BF50A1 SRJA
BF50A1 XRTA
BF50A2 LHTA
BF50A2 LRA
BF50A2 LRTA
BF50A2 SRJA
BF50A2 XRTA
BF50A3 LHTA
BF50A3 LRA
BF50A3 LRTA
BF50A3 SRJA
BF50A3 XRTA
BF50A4 LHTA
BF50A4 LRTA
BF50A4 SRJA
BF50A4 XRTA
BF50A5 LHTA
BF50A5 LRTA
BF50A5 SRJA
BF50A5 XRTA
BF50A6 LHTA
BF50A6 LRTA
BF50A6 SRJA
BF50A6 XRTA
BF50AK0 LRTA
BF50AK0 SRJA
BF50AK0 XRTA
BF50AW LHTA
BF50AW LRA
BF50AW LRTA
BF50AW SRJA
BF50AW XRTA
BF50AX LHTA
BF50AX LRA
BF50AX LRTA
BF50AX SRJA
BF50AX XRTA
BF50AY LHTA
BF50AY LRA
BF50AY LRTA
BF50AY SRJA
BF50AY XRTA
BF50DK2 LRTA
BF50DK2 XRTA
Honda
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- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
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- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
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- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
- CAMSHAFT » 14781-MB4-000
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Information:
Visual Inspection
Inspect the following parts:
Air lines
Hoses
Gasket joints
Pressurized air can cause personal injury. When pressurized air is used for cleaning, wear a protective face shield, protective clothing, and protective shoes.
Ensure that the constant torque hose clamps are tightened to the correct torque. Check the welded joints for cracks. Ensure that the brackets are in good condition and ensure that the brackets are tight. Use compressed air to clean any debris or any dust from the aftercooler core assembly. Inspect the core fins for the following conditions:
Damage
Debris
CorrosionUse a stainless steel brush to remove any corrosion. Ensure that you use soap and water.Note: When parts of the aftercooler system are repaired, perform a leak test in order to confirm that the repair has been successful.Inlet Manifold Pressure
Normal inlet manifold pressure with high exhaust temperature can be caused by blockage of the fins of the aftercooler core. Clean the fins of the aftercooler core. Refer to "Visual Inspection" for the cleaning procedure.Low inlet manifold pressure and high exhaust manifold temperature can be caused by any of the following conditions:Plugged air cleaner - Clean the air cleaner or replace the air cleaner, as required. Refer to the Operation and Maintenance Manual, "Engine Air Cleaner Element (Dual Element) - Inspect/Clean/Replace".Blockage in the air lines - Blockage in the air lines between the air cleaner and the turbocharger must be removed.Aftercooler core leakage - Visually inspect the aftercooler core in order to identify coolant leakage from the core. Refer to "Aftercooler Core Leakage" topic for the testing procedure.Inlet manifold leak - An inlet manifold leak can be caused by the following conditions: loose fittings and plugs, missing fittings and plugs, damaged fittings and plugs and leaking inlet manifold gasket.Measuring the Air Temperature and Air Pressure Across the Aftercooler
Remove all air leaks from the system to prevent engine damage. In some operating conditions, the engine can pull a manifold vacuum for short periods of time. A leak in the aftercooler or air lines can let dirt and other foreign material into the engine and cause rapid wear and/or damage to engine parts.
Illustration 1 g02646399
Test locations for the aftercooler temperature and pressure measurements (left side engine view)
(1) Port for measurements at outlet of the turbocharger compressor
(2) Ports for measurements at the inlet of the intake manifold (aftercooler air outlet) Perform measurements for pressure and temperature at the locations that are shown Illustration 1. Perform the measurements while the engine is under a normal mode operation. Record the test results in the following Table:
Table 2
Aftercooler Temperature and Pressure Measurements
Parameter 100% Load 75% Load 50% Load
"Compressor Out Pressure" (Inches Hg (ABS))
"Inlet Manifold Pressure" (Inches Hg (ABS))
"Compressor Out Temperature" (°F)
"Aftercooler Air Outlet Temperature" (°F) Compare the results of the test to values that are given in Technical Marketing Information (TMI). Look for similar results. If a large change in the temperature or the pressure differential is noticed, there may be a problem in the aftercooler circuit.If a large change for the pressure differential is discovered, check the air inlet system and the aftercooler circuit for restriction. Perform any necessary repairs. Refer to the topic "Inlet Manifold Pressure" for details that are related to troubleshooting the inlet air system.If a large change for the temperature differential is discovered, check the SCAC cooling system for a problem. Ensure that the aftercooler core is not restricted. If a restriction in the aftercooler core is suspected, refer to the topic "Measuring the Coolant Pressure Across the Aftercooler Core" for details.If a leak in the aftercooler core is suspected, refer to the topic "Aftercooler Core Leakage" for details.Measuring the Coolant Pressure Across the Aftercooler Core
Illustration 2 g02646019
Ports for measurement of the aftercooler coolant pressure (right side engine view)
(3) Outlet port for the aftercooler coolant
(4) Inlet port for the aftercooler coolant Perform measurements for the coolant pressure across the aftercooler core at the locations that are shown Illustration 1. Perform the measurements while the engine is under a normal mode operation.Compare your results to the following specifications that are for a new aftercooler core:These specifications were obtained under the following test conditions:Water flow in the SCAC system ... 79.5 L/min (21 US gpm)Specification for the water temperature at the inlet of the aftercooler core ... 54° to 75°C (129° to 134°F)Note: Ensure that consideration is given for the test conditions during the test.The following specification is for the pressure drop across the aftercooler core:Water pressure differential ... 9.6 kPa (1.4 psi)If the pressure drop across the core is out of specification, clean or replace the aftercooler core. Aftercooler Core Leakage
Typically, a leak from the coolant circuit of the aftercooler core can be found by performing a visual inspection of the core. Perform the following procedure:
Remove the aftercooler cover assembly in order to gain access to the aftercooler core.
Disconnect the coolant lines from the inlet and outlet side of the aftercooler core.
Remove the core from the engine.
Perform a visual inspection of the aftercooler core. Look for a buildup of calcium and scale at the site of the leak. Perform the necessary repairs. If the leak cannot be found through a visual inspection of the core, perform the following procedure:
D
Inspect the following parts:
Air lines
Hoses
Gasket joints
Pressurized air can cause personal injury. When pressurized air is used for cleaning, wear a protective face shield, protective clothing, and protective shoes.
Ensure that the constant torque hose clamps are tightened to the correct torque. Check the welded joints for cracks. Ensure that the brackets are in good condition and ensure that the brackets are tight. Use compressed air to clean any debris or any dust from the aftercooler core assembly. Inspect the core fins for the following conditions:
Damage
Debris
CorrosionUse a stainless steel brush to remove any corrosion. Ensure that you use soap and water.Note: When parts of the aftercooler system are repaired, perform a leak test in order to confirm that the repair has been successful.Inlet Manifold Pressure
Normal inlet manifold pressure with high exhaust temperature can be caused by blockage of the fins of the aftercooler core. Clean the fins of the aftercooler core. Refer to "Visual Inspection" for the cleaning procedure.Low inlet manifold pressure and high exhaust manifold temperature can be caused by any of the following conditions:Plugged air cleaner - Clean the air cleaner or replace the air cleaner, as required. Refer to the Operation and Maintenance Manual, "Engine Air Cleaner Element (Dual Element) - Inspect/Clean/Replace".Blockage in the air lines - Blockage in the air lines between the air cleaner and the turbocharger must be removed.Aftercooler core leakage - Visually inspect the aftercooler core in order to identify coolant leakage from the core. Refer to "Aftercooler Core Leakage" topic for the testing procedure.Inlet manifold leak - An inlet manifold leak can be caused by the following conditions: loose fittings and plugs, missing fittings and plugs, damaged fittings and plugs and leaking inlet manifold gasket.Measuring the Air Temperature and Air Pressure Across the Aftercooler
Remove all air leaks from the system to prevent engine damage. In some operating conditions, the engine can pull a manifold vacuum for short periods of time. A leak in the aftercooler or air lines can let dirt and other foreign material into the engine and cause rapid wear and/or damage to engine parts.
Illustration 1 g02646399
Test locations for the aftercooler temperature and pressure measurements (left side engine view)
(1) Port for measurements at outlet of the turbocharger compressor
(2) Ports for measurements at the inlet of the intake manifold (aftercooler air outlet) Perform measurements for pressure and temperature at the locations that are shown Illustration 1. Perform the measurements while the engine is under a normal mode operation. Record the test results in the following Table:
Table 2
Aftercooler Temperature and Pressure Measurements
Parameter 100% Load 75% Load 50% Load
"Compressor Out Pressure" (Inches Hg (ABS))
"Inlet Manifold Pressure" (Inches Hg (ABS))
"Compressor Out Temperature" (°F)
"Aftercooler Air Outlet Temperature" (°F) Compare the results of the test to values that are given in Technical Marketing Information (TMI). Look for similar results. If a large change in the temperature or the pressure differential is noticed, there may be a problem in the aftercooler circuit.If a large change for the pressure differential is discovered, check the air inlet system and the aftercooler circuit for restriction. Perform any necessary repairs. Refer to the topic "Inlet Manifold Pressure" for details that are related to troubleshooting the inlet air system.If a large change for the temperature differential is discovered, check the SCAC cooling system for a problem. Ensure that the aftercooler core is not restricted. If a restriction in the aftercooler core is suspected, refer to the topic "Measuring the Coolant Pressure Across the Aftercooler Core" for details.If a leak in the aftercooler core is suspected, refer to the topic "Aftercooler Core Leakage" for details.Measuring the Coolant Pressure Across the Aftercooler Core
Illustration 2 g02646019
Ports for measurement of the aftercooler coolant pressure (right side engine view)
(3) Outlet port for the aftercooler coolant
(4) Inlet port for the aftercooler coolant Perform measurements for the coolant pressure across the aftercooler core at the locations that are shown Illustration 1. Perform the measurements while the engine is under a normal mode operation.Compare your results to the following specifications that are for a new aftercooler core:These specifications were obtained under the following test conditions:Water flow in the SCAC system ... 79.5 L/min (21 US gpm)Specification for the water temperature at the inlet of the aftercooler core ... 54° to 75°C (129° to 134°F)Note: Ensure that consideration is given for the test conditions during the test.The following specification is for the pressure drop across the aftercooler core:Water pressure differential ... 9.6 kPa (1.4 psi)If the pressure drop across the core is out of specification, clean or replace the aftercooler core. Aftercooler Core Leakage
Typically, a leak from the coolant circuit of the aftercooler core can be found by performing a visual inspection of the core. Perform the following procedure:
Remove the aftercooler cover assembly in order to gain access to the aftercooler core.
Disconnect the coolant lines from the inlet and outlet side of the aftercooler core.
Remove the core from the engine.
Perform a visual inspection of the aftercooler core. Look for a buildup of calcium and scale at the site of the leak. Perform the necessary repairs. If the leak cannot be found through a visual inspection of the core, perform the following procedure:
D