F286282 WASHER Force
H0060B76A, H0062H79M, H0082H76G, H0082H79K, H0091B80B, H0091H79A, H0091H83C, H0091H84D, H009201SD, H0092284D, H0092B80G, H0092H79F, H0092H81H, H0092H81J, H0092H83K, H0092H84L, H0092S88A, H0092S91A, H0093S91A, H0094H81F, H0095B80F, H0095B81G, H0095H82
WASHER
Price: query
Rating:
Compatible models:
H0060B76A
H0062H79M
H0082H76G
H0082H79K
H0091B80B
H0091H79A
H0091H83C
H0091H84D
H009201SD
H0092284D
H0092B80G
H0092H79F
H0092H81H
H0092H81J
H0092H83K
H0092H84L
H0092S88A
H0092S91A
H0093S91A
H0094H81F
H0095B80F
H0095B81G
H0095H82H
H0101B78A
H0102H76C
H0102H78E
H0121B79A
H0122H79E
H0125H79E
H015211SS
H0152B78D
H0152B83J
H0152C84K
H0152H79E
H0152H80F
H0152H81G
H0152S89A
H0202B80L
H0202B81M
H0202H79K
H0202H82N
H025201RD
H025201TD
H025201TS
H025201US
H0252B83G
H0252H77B
H0252H78C
H0252H78D
H0254H75A
H0257F88A
H0257F88B
H0306B80C
H0307H81D
H0350H78L
H0351H76K
H0352F90B
H0352F90C
H0353E91A
H0353E91B
H0355D89A
H0356F89B
H0357C86A
H0357C87A
H0357C88B
H0357F88A
H0357F89C
H0357G90A
H0357H83N
Force
Force entire parts catalog list:
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- CYLINDER BLOCK (84A THRU 87A MODELS) » F286282
- TILLER HANDLE AND THROTTLE LINKAGE (84A-92B & SER. # E00000 » F286282
- POWER HEAD » F286282
- REMOTE CONTROL LINKAGE » F286282
- TILLER HANDLE AND THROTTLE LINKAGE (84A-92B & SER. # E00000 » F286282
- CYLINDER BLOCK (84A THRU 87A MODELS) » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- TILLER HANDLE AND THROTTLE LINKAGE (84A-92B & SER. # E00000 » F286282
- POWER HEAD » F286282
- CYLINDER BLOCK (84A THRU 87A MODELS) » F286282
- TILLER HANDLE AND THROTTLE LINKAGE (84A-92B & SER. # E00000 » F286282
- CYLINDER BLOCK (84A THRU 87A MODELS) » F286282
- TILLER HANDLE AND THROTTLE LINKAGE (84A-92B & SER. # E00000 » F286282
- CYLINDER BLOCK (84A THRU 87A MODELS) » F286282
- TILLER HANDLE AND THROTTLE LINKAGE (84A-92B & SER. # E00000 » F286282
- CYLINDER BLOCK (84A THRU 87A MODELS) » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- REMOTE CONTROL LINKAGE » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- TILLER HANDLE AND THROTTLE LINKAGE (84A-92B & SER. # E00000 » F286282
- POWER HEAD » F286282
- CYLINDER BLOCK (84A THRU 87A MODELS) » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- TILLER HANDLE AND THROTTLE LINKAGE (84A-92B & SER. # E00000 » F286282
- TILLER HANDLE AND THROTTLE LINKAGE » F286282
- CYLINDER BLOCK (84A THRU 87A MODELS) » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- TILLER HANDLE & THROTTLE LINKAGE » F286282
- TILLER HANDLE & THROTTLE LINKAGE » F286282
- TILLER HANDLE AND THROTTLE LINKAGE » F286282
- TILLER HANDLE & THROTTLE LINKAGE » F286282
- TILLER HANDLE AND THROTTLE LINKAGE » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
- POWER HEAD » F286282
Information:
Introduction
The problem that is identified below does not have a known permanent solution. Until a permanent solution is known, use a solution that is identified below.Problem
Failures of the 258-8725 Water Pump Gp (Jacket Water) on the above generator set engines have been reported. The primary failure mode has been coolant leaks through the pump's weep hole due to a damaged water seal.Damage to the water seal occurs when a seal overheats. Dry running of the pump or pump cavitation will cause overheating of the water seal.The characteristics of the design of the pump are being evaluated. The following factors are the main contributors to dry running water pump seals and water pump cavitation:
Application
Installation
Design of the cooling system
Maintenance
OperationSolution
The above problem continues to be investigated. In the interim, Caterpillar recommends the following solution:
The cooling systems must be designed to Caterpillar requirements.
Ensure that the following proper maintenance practices are used: filling procedure for coolant, engine starting procedures, check for external restrictions and purge air from the cooling system.Filling and Venting
While the coolant system is filled, air can be trapped. Proper filling and venting will minimize these air pockets. Refer to the Application and Installation Guide, LEBW4978, "Cooling Systems" for details about filling and venting. Also follow the guidelines for filling and venting the cooling system.
The engine must be filled from the bottom with coolant at a rate no faster than 19 L (5 US gal) per minute. The cap must be removed from the expansion tank during filling of the cooling system.
The vent line must be routed with a continuous upward slope from the highest point of the engine's cooling system to the bottom of the expansion tank.For a system with a volume that is greater than 284 L (75 US gal), the vent lines must be a minimum diameter of 9 mm (3/8 inch).For a system with a volume that is greater than 568 L (150 US gal), the vent lines must be a minimum diameter of 13 mm (1/2 inch).Engine Start-Up
Perform the following procedures in order to ensure that the air is purged after a cooling system has been filled:
Do not accelerate the engine directly to high idle speed.
Run the engine at low idle speed for approximately ten minutes.
During the initial ten minutes of running, monitor the expansion tank and maintain the coolant level above the minimum mark.Design of the Cooling System
The design of the cooling system must be evaluated if the commissioning procedure for the cooling system has not been completed successfully.All systems must be designed as shown in the guidelines in Application and Installation Guide, LEBW4978, "Cooling Systems".Refer to Engine Data Sheet, LEKQ8288, "Sizing Customer Furnished Cooling Systems" for sizing information for the cooling system.For guidelines for the field test of the cooling system, refer to Engine Data Sheet, LEKQ7235, "Cooling System Field Test". The field test of the cooling system must be completed during the engine commissioning. This must be considered when pump failures occur.Pump failures that are associated with poor design of the cooling system are typically caused by the following:
Excess system restriction
The lack of a shunt line
Low system pressure after shutdowns
Undersized expansion tanksExpansion Tank
In order to absorb an after-boil that may occur during a hot shutdown, the expansion tank must be sized properly.An expansion tank in a jacket water system that is a standard temperature must be a minimum of 15 percent of total volume of the system.An expansion tank in a jacket water system that is high temperature that is greater than 100 °C (212 °F) must be a minimum of 25 percent of total volume of the system.Pressure Cap
In order to help prevent an after-boil that may occur during a hot shutdown, the proper pressure cap must be installed. The pressure of the system must be 27.5 to 34.4 kPa (4 to 5 psi) above the pressure that forms steam.A pressure cap for a standard engine is typically 27.5 to 48.2 kPa (4 to 7 psi).A pressure cap for an engine that is in a landfill application is typically 130.9 to 151.6 kPa (19 to 22 psi). Information that Must be Reported to the Dealer Solution Network (DSN) in the Event of a Failure of a 258-8725 Water Pump Gp (Jacket Water)
In the event of a pump failure have your technical communicator contact the DSN as soon as possible. Supply the following information to the DSN:
Description of the problem
Provide a data log from Caterpillar Electronic Technician (ET) at no load and rated load from a cold start with the following parameters: jacket water pressure, jacket water coolant temperature, engine load, engine speed, oil temperature and oil pressure
Describe the initial commissioning procedure.
Describe the procedure for engine start-up after cooling system maintenance is performed.
Table 1
Cooling System Audit    
Product Name:     Date:    
Dealer Code:     Dealer Contact:    
Sales Model:     Serial Number(s):    
Site Location:     Altitude (Feet above sea level):    
Design Ambient (Max °F):        
Cooling System Type (Circle One):    
Radiator     Heat Exchanger     Keel Cooling     Cooling Tower        
Manufacturer:     System Designer:    
Cooling System Capacity
(Gal) Per Engine:     Coolant Type:    
Cooling System Schematic (Circle One):    
Attached     Not Available     Forthcoming        
Cooling System Design Features (Circle All That Apply)    
Expansion Tank     Shunt Line     Engine
Thermostats     Filters     Thermostat Bypass     Inlet
Temperature
Control    
System/Component Dimensions (Fill In)    
Radiator:     Pipe Dim
Length and Dia:     Number Of Elbows
Dia. and Angle:    
Shunt Line
ID in Inches:     Rad Cap PSI:     Thermostat Type:    
External
Restriction: (1)     Vent Line
ID in Inches:     Expansion Tank Volume (Gal):    
Pressures     Start Up     Rated load     Not Running    
Inlet Outlet     Inlet     Outlet     Inlet     Outlet    
Jacket Water Pump                            
Engine                            
Actual
Temperature                        
The problem that is identified below does not have a known permanent solution. Until a permanent solution is known, use a solution that is identified below.Problem
Failures of the 258-8725 Water Pump Gp (Jacket Water) on the above generator set engines have been reported. The primary failure mode has been coolant leaks through the pump's weep hole due to a damaged water seal.Damage to the water seal occurs when a seal overheats. Dry running of the pump or pump cavitation will cause overheating of the water seal.The characteristics of the design of the pump are being evaluated. The following factors are the main contributors to dry running water pump seals and water pump cavitation:
Application
Installation
Design of the cooling system
Maintenance
OperationSolution
The above problem continues to be investigated. In the interim, Caterpillar recommends the following solution:
The cooling systems must be designed to Caterpillar requirements.
Ensure that the following proper maintenance practices are used: filling procedure for coolant, engine starting procedures, check for external restrictions and purge air from the cooling system.Filling and Venting
While the coolant system is filled, air can be trapped. Proper filling and venting will minimize these air pockets. Refer to the Application and Installation Guide, LEBW4978, "Cooling Systems" for details about filling and venting. Also follow the guidelines for filling and venting the cooling system.
The engine must be filled from the bottom with coolant at a rate no faster than 19 L (5 US gal) per minute. The cap must be removed from the expansion tank during filling of the cooling system.
The vent line must be routed with a continuous upward slope from the highest point of the engine's cooling system to the bottom of the expansion tank.For a system with a volume that is greater than 284 L (75 US gal), the vent lines must be a minimum diameter of 9 mm (3/8 inch).For a system with a volume that is greater than 568 L (150 US gal), the vent lines must be a minimum diameter of 13 mm (1/2 inch).Engine Start-Up
Perform the following procedures in order to ensure that the air is purged after a cooling system has been filled:
Do not accelerate the engine directly to high idle speed.
Run the engine at low idle speed for approximately ten minutes.
During the initial ten minutes of running, monitor the expansion tank and maintain the coolant level above the minimum mark.Design of the Cooling System
The design of the cooling system must be evaluated if the commissioning procedure for the cooling system has not been completed successfully.All systems must be designed as shown in the guidelines in Application and Installation Guide, LEBW4978, "Cooling Systems".Refer to Engine Data Sheet, LEKQ8288, "Sizing Customer Furnished Cooling Systems" for sizing information for the cooling system.For guidelines for the field test of the cooling system, refer to Engine Data Sheet, LEKQ7235, "Cooling System Field Test". The field test of the cooling system must be completed during the engine commissioning. This must be considered when pump failures occur.Pump failures that are associated with poor design of the cooling system are typically caused by the following:
Excess system restriction
The lack of a shunt line
Low system pressure after shutdowns
Undersized expansion tanksExpansion Tank
In order to absorb an after-boil that may occur during a hot shutdown, the expansion tank must be sized properly.An expansion tank in a jacket water system that is a standard temperature must be a minimum of 15 percent of total volume of the system.An expansion tank in a jacket water system that is high temperature that is greater than 100 °C (212 °F) must be a minimum of 25 percent of total volume of the system.Pressure Cap
In order to help prevent an after-boil that may occur during a hot shutdown, the proper pressure cap must be installed. The pressure of the system must be 27.5 to 34.4 kPa (4 to 5 psi) above the pressure that forms steam.A pressure cap for a standard engine is typically 27.5 to 48.2 kPa (4 to 7 psi).A pressure cap for an engine that is in a landfill application is typically 130.9 to 151.6 kPa (19 to 22 psi). Information that Must be Reported to the Dealer Solution Network (DSN) in the Event of a Failure of a 258-8725 Water Pump Gp (Jacket Water)
In the event of a pump failure have your technical communicator contact the DSN as soon as possible. Supply the following information to the DSN:
Description of the problem
Provide a data log from Caterpillar Electronic Technician (ET) at no load and rated load from a cold start with the following parameters: jacket water pressure, jacket water coolant temperature, engine load, engine speed, oil temperature and oil pressure
Describe the initial commissioning procedure.
Describe the procedure for engine start-up after cooling system maintenance is performed.
Table 1
Cooling System Audit    
Product Name:     Date:    
Dealer Code:     Dealer Contact:    
Sales Model:     Serial Number(s):    
Site Location:     Altitude (Feet above sea level):    
Design Ambient (Max °F):        
Cooling System Type (Circle One):    
Radiator     Heat Exchanger     Keel Cooling     Cooling Tower        
Manufacturer:     System Designer:    
Cooling System Capacity
(Gal) Per Engine:     Coolant Type:    
Cooling System Schematic (Circle One):    
Attached     Not Available     Forthcoming        
Cooling System Design Features (Circle All That Apply)    
Expansion Tank     Shunt Line     Engine
Thermostats     Filters     Thermostat Bypass     Inlet
Temperature
Control    
System/Component Dimensions (Fill In)    
Radiator:     Pipe Dim
Length and Dia:     Number Of Elbows
Dia. and Angle:    
Shunt Line
ID in Inches:     Rad Cap PSI:     Thermostat Type:    
External
Restriction: (1)     Vent Line
ID in Inches:     Expansion Tank Volume (Gal):    
Pressures     Start Up     Rated load     Not Running    
Inlet Outlet     Inlet     Outlet     Inlet     Outlet    
Jacket Water Pump                            
Engine                            
Actual
Temperature                        
Parts washer Force:
F8077
F8077 WASHER, GEAR HOUSING PLUG
H0032H84G, H0033H75C, H0042081C, H0042082D, H0042083E, H0042B78C, H0042B80G, H0042C84L, H0042C87A, H0042H78D, H0042H79F, H0043F85A, H0054H76D, H0060B76A, H0060B78B, H0060H79C, H0060H80D, H0062B78J, H0062H79K, H0062H79M, H0064H78D, H0064H80F, H0064H82
F15091
F15091 WASHER
H0202B81M, H0202H79K, H0252B83G, H0252H77B, H0252H78D, H0254H75A, H0306B80C, H0307H81D, H0356H75F, H0357H83N, H0456B78J, H0456B79K, H0456B80L, H0457H82N, H0457H83P, H0503B83A, H0507H81A, H0507H82B, H0555H74G
F15155
F15155 WASHER, THRUST
H0252B83G, H0257F88A, H0257F88B, H0350H78L, H0351H76K, H0352F90B, H0352F90C, H0353E91A, H0353E91B, H0355D89A, H0356F89B, H0357C86A, H0357C87A, H0357C88B, H0357F88A, H0357F89C, H0357G90A
F513286
F513286 WASHER, SWIVEL BRACKET FRICTION
H0252H77B, H0252H78C, H0351H76K, H0903E91D, H0903E91H, H0903F91C, H1201A90A, H1501E89A
12038
12038 WASHER
H0091H84D, H009201RS, H009201SD, H009201UD, H009201US, H0092284D, H0092H84L, H0092S88A, H0092S91A, H0093S91A, H015201RS, H015201US, H015211SS, H0152C84K, H0152S89A, H025201RD, H025201TD, H025201TS, H025201US, H0903E91H, H1201A90A, H1501E89A
F658504
F658504 WASHER-THERMOSTAT
H0091H84D, H009201RS, H009201SD, H009201UD, H009201US, H0092284D, H0092H84L, H0092S88A, H0092S91A, H0093S91A, H015201RS, H015201US, H015211SS, H0152C84K, H0152S89A, H025201RD, H025201TD, H025201TS, H025201US, H040312RD, H040312SD, H040312UD, H0407E92
F8186
F8186 WASHER
H0353E91A, H0507A91C, H0903E91D, H0903F91A, H0903F91C, H090LD90B, H090LD90C, H090LD91D, H120LD90C, H120LD91B, H120LD91D, H120LD92B
10242