14761-P8E-A02 SEE PART DETAILS - PRI; SPRING, IN. VALVE (GRAY) (Honda Code 6633721). (ASSOCIATED SPRING) Honda
BF175AK1 LA, BF175AK1 XA, BF175AK1 XCA, BF175AK2 LA, BF175AK2 XA, BF175AK2 XCA, BF200A2 LA, BF200A2 XA, BF200A2 XCA, BF200A2 XXA, BF200A2 XXCA, BF200A3 LA, BF200A3 XA, BF200A3 XCA, BF200A3 XXA, BF200A3 XXCA, BF200A4 LA, BF200A4 XA, BF200A4 XCA, BF200
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Genuine Honda 14761-P8E-A02 Intake Valve (Gray) (Associated Spring) Spring
Honda Genuine Honda 14761-P8E-A02 Intake Valve (Gray) (Associated Spring) Spring
Honda Genuine Honda 14761-P8E-A02 Intake Valve (Gray) (Associated Spring) Spring
Compatible models:
BF175AK1 LA
BF175AK1 XA
BF175AK1 XCA
BF175AK2 LA
BF175AK2 XA
BF175AK2 XCA
BF200A2 LA
BF200A2 XA
BF200A2 XCA
BF200A2 XXA
BF200A2 XXCA
BF200A3 LA
BF200A3 XA
BF200A3 XCA
BF200A3 XXA
BF200A3 XXCA
BF200A4 LA
BF200A4 XA
BF200A4 XCA
BF200A4 XXA
BF200A4 XXCA
BF200A5 LA
BF200A5 XA
BF200A5 XCA
BF200A5 XXA
BF200A5 XXCA
BF200A6 LA
BF200A6 XA
BF200A6 XCA
BF200A6 XXA
BF200A6 XXCA
BF200AK0 LA
BF200AK0 XA
BF200AK0 XCA
BF200AK1 LA
BF200AK1 XA
BF200AK1 XCA
BF200AK2 LA
BF200AK2 XA
BF200AK2 XCA
BF225A2 LA
BF225A2 XA
BF225A2 XCA
BF225A2 XXA
BF225A2 XXCA
BF225A3 LA
BF225A3 XA
BF225A3 XCA
BF225A3 XXA
BF225A3 XXCA
BF225A4 LA
BF225A4 XA
BF225A4 XCA
BF225A4 XXA
BF225A4 XXCA
BF225A5 LA
BF225A5 XA
BF225A5 XCA
BF225A5 XXA
BF225A5 XXCA
BF225A6 LA
BF225A6 XA
BF225A6 XCA
BF225A6 XXA
BF225A6 XXCA
BF225AK0 LA
BF225AK0 XA
BF225AK0 XCA
BF225AK0 XXA
BF225AK0 XXCA
BF225AK1 LA
BF225AK1 XA
BF225AK1 XCA
BF225AK1 XXA
BF225AK1 XXCA
BF225AK2 LA
BF225AK2 XA
BF225AK2 XCA
BF225AK2 XXA
BF225AK2 XXCA
Honda
Honda entire parts catalog list:
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
- CAMSHAFT ROCKER ARM » 14761-P8E-A02
Information:
Location of the Corrosion Protection Post
C32 SCAC Marine Engine
Illustration 1 g03267159
(4) Bonding connector
(5) Vessel zinc
(6) Bonding studTesting the Voltage Potential
Voltage potential should be measured at each installation and should become part of the installation audit process.Operate the engine for at least 30 minutes, then stop the engine. Disconnect the engine from the shore power connection. Use a 257-9140 Multimeter and a 244-1536 Cable Group to test the voltage potential from the salt water to the engine. A silver-silver chloride half cell probe is widely available if the Cat tools are not available.
Connect a #8 American Wire Gauge (AWG) cable from the sacrificial anode to the bonding system of the vessel.
Test the voltage at the bonding stud.
Test the voltage at the bonding connector.Use the following for voltage potential testing.
Table 1
Corrosion probe
Readings in Millivolts Freely Eroding Protected Over Protected
Bronze
0–600 600–700 700–1200
Steel
0–750 750–950 950–1200
Aluminum
0–800 800–1050 1050–1200 To ensure the engine and all components on the vessel in contact with sea water are bonded correctly, the technician clamps the black cable onto the engine component being tested. This component should be in contact with seawater with the engine running. The probe on the red cable is lowered into the water along the vessel. The technician plugs the cables into any multimeter that reads millivolts. Recommended voltage potential when connected to an anode should coincide with the 244-1536 Cable Group tag (200-300 mV above the noble scale value of the least noble metal you are trying to protect). Begin bonding testing with all electrical components on board switched OFF.To complete voltage potential testing, leave both leads connected to the multimeter and the red cable lowered in the water along the vessel. Move the clamp on the black cable to anode connections inside the hull and measure voltage. Move the same clamp to all metal components in contact with seawater. Ensure the voltage potential at the 1) engine bonding stud 2) the individual anodes and 3) all metal components in contact with seawater is equal. If the voltage potential between each of these components is not equal, the anode connection may be corroded or missing and needs replaced. In any case, if the voltage potential measurement between components is not equal, troubleshooting must occur and the issue(s) should be corrected. If the reading indicates metal is eroding, anodes should be added to increase the reading. If the reading indicates the metal is overprotected, anodes should be removed.Note: When the vessel is bonded correctly, the voltage potential for all components in contact with seawater will be exactly the same. After vessel bonding and anodes have been installed, the hull needs to “polarize” – a natural process that can take up to 24 hours.To investigate stray current corrosion, turn on-board electrical components “ON” one-by-one. As components are turned “ON”, watch for changes in voltage. With any voltage change on any component, this is a sign of stray current and should be corrected immediately.Results of the Test
The voltage potential must be between 600 mV and 700 mV.Note: A value near or greater than 0.0 mV is extremely corrosive.Measure the galvanic potential of the system and apply zinc or other less noble metal to divert corrosion. Contact your Cat dealer for more information.Bonding the Marine Engine
Illustration 2 g06219255
(1) Engine
(2) Propeller shaft
(3) Sea cock
(4) Vessel anode
(5) Engine bonding conductor
(6) Common bonding conductor (wire)
(7) Hull Through-boltsThe purpose of bonding is to prevent corrosion of the cathode (engine, vessel) by providing a less noble anode. The sacrificial anode corrodes instead of the protected metal. For galvanic cathodic protection to work, the anode must possess a lower more negative electrode potential than the cathode (the target structure to be protected).Three distinct methods to protect a vessel from galvanic corrosion are recognized in the industry today:
Completed circuit between any metal component in contact with sea water and vessel anode (for example, each component and vessel anode connected in circuit). It's recommended each component be connected via a low voltage connection, rather than running each component to a common bus. If a connection to the common bus fails, that component will not be protected. Connected in series, if a connection fails, that component would still be protected due to its second connection
Electrically isolated metal components in contact with sea water (for example, each component is protected with its own anode)
Impressed current cathodic protection (ICCP). Manufacturer recommendations should be followed on all ICCP systemsNote: All marine engines must be bonded using one of these three aforementioned methods. Caterpillar recommends bonding these engines with method #1. Regarding the engine portion of this bonding circuit, the engine bonding stud locations should be used.Note: Bonding is not only for engines. All components in contact with sea water must be bonded and tested! For example, if the propeller shaft is not connected within the same circuit as the other components, the shaft will have a different voltage potential and could draw metal away from the engine. Everything in contact with sea water has to be included in the bonding circuit. The anodes have to be able to sufficiently raise the potential of all components.Engine Specific Bonding
C32 SCAC Marine Engine
Illustration 1 g03267159
(4) Bonding connector
(5) Vessel zinc
(6) Bonding studTesting the Voltage Potential
Voltage potential should be measured at each installation and should become part of the installation audit process.Operate the engine for at least 30 minutes, then stop the engine. Disconnect the engine from the shore power connection. Use a 257-9140 Multimeter and a 244-1536 Cable Group to test the voltage potential from the salt water to the engine. A silver-silver chloride half cell probe is widely available if the Cat tools are not available.
Connect a #8 American Wire Gauge (AWG) cable from the sacrificial anode to the bonding system of the vessel.
Test the voltage at the bonding stud.
Test the voltage at the bonding connector.Use the following for voltage potential testing.
Table 1
Corrosion probe
Readings in Millivolts Freely Eroding Protected Over Protected
Bronze
0–600 600–700 700–1200
Steel
0–750 750–950 950–1200
Aluminum
0–800 800–1050 1050–1200 To ensure the engine and all components on the vessel in contact with sea water are bonded correctly, the technician clamps the black cable onto the engine component being tested. This component should be in contact with seawater with the engine running. The probe on the red cable is lowered into the water along the vessel. The technician plugs the cables into any multimeter that reads millivolts. Recommended voltage potential when connected to an anode should coincide with the 244-1536 Cable Group tag (200-300 mV above the noble scale value of the least noble metal you are trying to protect). Begin bonding testing with all electrical components on board switched OFF.To complete voltage potential testing, leave both leads connected to the multimeter and the red cable lowered in the water along the vessel. Move the clamp on the black cable to anode connections inside the hull and measure voltage. Move the same clamp to all metal components in contact with seawater. Ensure the voltage potential at the 1) engine bonding stud 2) the individual anodes and 3) all metal components in contact with seawater is equal. If the voltage potential between each of these components is not equal, the anode connection may be corroded or missing and needs replaced. In any case, if the voltage potential measurement between components is not equal, troubleshooting must occur and the issue(s) should be corrected. If the reading indicates metal is eroding, anodes should be added to increase the reading. If the reading indicates the metal is overprotected, anodes should be removed.Note: When the vessel is bonded correctly, the voltage potential for all components in contact with seawater will be exactly the same. After vessel bonding and anodes have been installed, the hull needs to “polarize” – a natural process that can take up to 24 hours.To investigate stray current corrosion, turn on-board electrical components “ON” one-by-one. As components are turned “ON”, watch for changes in voltage. With any voltage change on any component, this is a sign of stray current and should be corrected immediately.Results of the Test
The voltage potential must be between 600 mV and 700 mV.Note: A value near or greater than 0.0 mV is extremely corrosive.Measure the galvanic potential of the system and apply zinc or other less noble metal to divert corrosion. Contact your Cat dealer for more information.Bonding the Marine Engine
Illustration 2 g06219255
(1) Engine
(2) Propeller shaft
(3) Sea cock
(4) Vessel anode
(5) Engine bonding conductor
(6) Common bonding conductor (wire)
(7) Hull Through-boltsThe purpose of bonding is to prevent corrosion of the cathode (engine, vessel) by providing a less noble anode. The sacrificial anode corrodes instead of the protected metal. For galvanic cathodic protection to work, the anode must possess a lower more negative electrode potential than the cathode (the target structure to be protected).Three distinct methods to protect a vessel from galvanic corrosion are recognized in the industry today:
Completed circuit between any metal component in contact with sea water and vessel anode (for example, each component and vessel anode connected in circuit). It's recommended each component be connected via a low voltage connection, rather than running each component to a common bus. If a connection to the common bus fails, that component will not be protected. Connected in series, if a connection fails, that component would still be protected due to its second connection
Electrically isolated metal components in contact with sea water (for example, each component is protected with its own anode)
Impressed current cathodic protection (ICCP). Manufacturer recommendations should be followed on all ICCP systemsNote: All marine engines must be bonded using one of these three aforementioned methods. Caterpillar recommends bonding these engines with method #1. Regarding the engine portion of this bonding circuit, the engine bonding stud locations should be used.Note: Bonding is not only for engines. All components in contact with sea water must be bonded and tested! For example, if the propeller shaft is not connected within the same circuit as the other components, the shaft will have a different voltage potential and could draw metal away from the engine. Everything in contact with sea water has to be included in the bonding circuit. The anodes have to be able to sufficiently raise the potential of all components.Engine Specific Bonding
Parts see Honda:
17661-921-000
17661-921-000 SEE PART DETAILS - SUP; PRIMER BULB (Honda Code 0444083).
BF115A1 LA, BF115A1 LCA, BF115A1 XA, BF115A1 XCA, BF115A2 LA, BF115A2 LCA, BF115A2 XA, BF115A2 XCA, BF115A3 LA, BF115A3 LCA, BF115A3 XA, BF115A3 XCA, BF115A4 LA, BF115A4 LCA, BF115A4 XA, BF115A4 XCA, BF115AX LA, BF115AX LCA, BF115AX XA, BF115AX XCA,
04101-ZW9-000
04101-ZW9-000 SEE PART DETAILS - SUP; TUBE ASSY., FUEL (Honda Code 6795595).
BF115A1 LA, BF115A1 LCA, BF115A1 XA, BF115A1 XCA, BF115AX LA, BF115AX LCA, BF115AX XA, BF115AX XCA, BF115AY LA, BF115AY LCA, BF115AY XA, BF115AY XCA, BF130A1 LA, BF130A1 LCA, BF130A1 XA, BF130A1 XCA, BF130AX LA, BF130AX LCA, BF130AX XA, BF130AX XCA,
04104-ZW9-000
04104-ZW9-000 SEE PART DETAILS - SUP; CONNECTOR SET, FUEL (Honda Code 6780472).
BF115A1 LA, BF115A1 LCA, BF115A1 XA, BF115A1 XCA, BF115AX LA, BF115AX LCA, BF115AX XA, BF115AX XCA, BF115AY LA, BF115AY LCA, BF115AY XA, BF115AY XCA, BF130A1 LA, BF130A1 LCA, BF130A1 XA, BF130A1 XCA, BF130AX LA, BF130AX LCA, BF130AX XA, BF130AX XCA,
06111-ZW1-000
06111-ZW1-000 SEE PART DETAILS - SUP; GASKET KIT (Honda Code 5181292).
BF75A1 LHTA, BF75A1 LRTA, BF75A1 XRTA, BF75AT LHTA, BF75AT LRTA, BF75AT XRTA, BF75AW LHTA, BF75AW LRTA, BF75AW XRTA, BF75AX LHTA, BF75AX LRTA, BF75AX XRTA, BF75AY LHTA, BF75AY LRTA, BF75AY XRTA, BF90A1 JHTA, BF90A1 JRTA, BF90A1 LHTA, BF90A1 LRTA, BF9
90010-ZW1-010
90010-ZW1-010 SEE PART DETAILS - PRI; BOLT, HEX. (10X47) (Honda Code 5171863).
BF115A1 LA, BF115A1 LCA, BF115A1 XA, BF115A1 XCA, BF115A2 LA, BF115A2 LCA, BF115A2 XA, BF115A2 XCA, BF115A3 LA, BF115A3 LCA, BF115A3 XA, BF115A3 XCA, BF115A4 LA, BF115A4 LCA, BF115A4 XA, BF115A4 XCA, BF115A5 LA, BF115A5 LCA, BF115A5 XA, BF115A5 XCA,
24912-ZW1-004XT
24912-ZW1-004XT SEE PART DETAILS - PRI; CABLE, REMOTE CONTROL (12') (Honda Code 6421101). (TELEFLEX)
BF60AK1 LRTA, BF60AK1 XRTA, BF75A1 LRTA, BF75A1 XRTA, BF75A2 LRTA, BF75A2 XRTA, BF75A3 LRTA, BF75A3 XRTA, BF75A4 LRTA, BF75A4 XRTA, BF75A5 LRTA, BF75A5 XRTA, BF75A6 LRTA, BF75A6 XRTA, BF75AT LRTA, BF75AT XRTA, BF75AW LRTA, BF75AW XRTA, BF75AX LRTA, B
40212-ZW1-010ZA
40212-ZW1-010ZA SEE PART DETAILS - PRI; COVER, DRAIN PLUG *NH282MU* (OYSTER SILVER METALLIC-U)
BF115A1 LA, BF115A1 LCA, BF115A1 XA, BF115A1 XCA, BF115A2 LA, BF115A2 LCA, BF115A2 XA, BF115A2 XCA, BF115A3 LA, BF115A3 LCA, BF115A3 XA, BF115A3 XCA, BF115A4 LA, BF115A4 LCA, BF115A4 XA, BF115A4 XCA, BF115A5 LA, BF115A5 LCA, BF115A5 XA, BF115A5 XCA,
56120-ZY9-003
56120-ZY9-003 SEE PART DETAILS - PRI; ROD, PISTON
BF115A1 LA, BF115A1 LCA, BF115A1 XA, BF115A1 XCA, BF115A2 LA, BF115A2 LCA, BF115A2 XA, BF115A2 XCA, BF115A3 LA, BF115A3 LCA, BF115A3 XA, BF115A3 XCA, BF115A4 LA, BF115A4 LCA, BF115A4 XA, BF115A4 XCA, BF115A5 LA, BF115A5 LCA, BF115A5 XA, BF115A5 XCA,