3908830 FAN AR-SUCTION Caterpillar parts
312D2, 312D2 GC, 313D2
Rating:
Alternative (cross code) number:
CA3908830
390-8830
3908830
CA3908830
390-8830
3908830
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1 Pcs Diesel Engine Powder Metal Intake Valve 3908830 3928174 Compatible with 6CT 6CT83 PC360-7 Excavator Part
Generic 1 Pcs Diesel Engine Powder Metal Intake Valve 3908830 3928174 Compatible with 6CT 6CT83 PC360-7 Excavator Part || Origin:Mainland China
Generic 1 Pcs Diesel Engine Powder Metal Intake Valve 3908830 3928174 Compatible with 6CT 6CT83 PC360-7 Excavator Part || Origin:Mainland China
YANNAL PART 12 PC 6D114 Intake Valve Seat 3908830 6742-01-2950 Suitable for Komatsu Engine Part
YANNAL PART Product Name: Intake Valve Seat || Product Name: 3908830 6742-01-2950 || Application: Compatible for Komatsu 6D114 || Warranty: 1 Year || Note: Please verify your part number before ordering, any problem please feel free to contact us, thanks.
YANNAL PART Product Name: Intake Valve Seat || Product Name: 3908830 6742-01-2950 || Application: Compatible for Komatsu 6D114 || Warranty: 1 Year || Note: Please verify your part number before ordering, any problem please feel free to contact us, thanks.
YANNAL PART 6 PC 3908830 6742-01-2950 Intake Valve Seat Suitable for Cummins 6CT Engine Part
YANNAL PART Product Name: Intake Valve Seat || Product Name: 3908830 6742-01-2950 || Application: Compatible for Cummins 6CT || Warranty: 1 Year || Note: Please verify your part number before ordering, any problem please feel free to contact us, thanks.
YANNAL PART Product Name: Intake Valve Seat || Product Name: 3908830 6742-01-2950 || Application: Compatible for Cummins 6CT || Warranty: 1 Year || Note: Please verify your part number before ordering, any problem please feel free to contact us, thanks.
Information:
The two stage aftercooler is located in the center of the engine vee. The two stage aftercooler assembly is significantly taller and heavier than the single stage aftercooler. The two stage aftercooler assembly has one long housing, one core assembly and one cover unlike the two sets of housing, cover and core assembly which make up the single stage aftercooler.The major difference between the two stage aftercooler and the single stage aftercooler is the two stage aftercooler uses two coolant circuits to cool the charge air from the turbocharger. The air side is one single pass similar to the single stage aftercooler. The two stage aftercooler also has removable end tanks to allow for mechanical cleaning.The use of two coolant circuits (or stages) provides various advantages such as heat recovery with the high temperature stage, improved detonation margin, and cooling system optimization. There are eight different cooling system configurations recommended for use with a two stage aftercooler engine.Configuration 1
This configuration cools the first stage of the aftercooler in parallel with the engine water jacket. This allows for 45-50 percent of the aftercooler heat load to be rejected to the high temperature jacket water circuit. The second stage of the aftercooler is cooled in parallel with the engine oil cooler, similar to a single stage aftercooler. The overall radiator sizing for this configuration will be significantly reduced compared to the single stage aftercooler, as the low temperature portion of the heat load (from second stage aftercooler) is reduced by half from the single stage aftercooler configuration.Configuration 2
This configuration is similar to the standard cooling system on G3612 and G3616 engines, with an additional circuit for the first stage of the two stage aftercooler. This additional stage requires a customer supplied pump. As much as 82 percent of the aftercooler heat load can be recovered from the first stage with this configuration. The inlet temperature and pressure limits for the first stage aftercooler are shown on the schematic.Configuration 3
This configuration uses a two stage aftercooler connected in series for better cooling capability. The overall effectiveness of the aftercooler is increased significantly which helps in providing more detonation margin and lowering the deration factor for all applications. This is also recommended for applications where raw water is used for cooling the aftercooler directly and where mechanically cleanable aftercoolers are required.Configuration 4
This configuration uses a two stage aftercooler connected in series for better cooling capability while allowing a higher temperature cooling of the oil cooler. The oil cooler needs a customer supplied pump for circulation. The overall effectiveness of the aftercooler is increased significantly which helps in providing more detonation margin and lowering the deration factor for all applications. This is also recommended for applications where raw water is used for cooling the aftercooler directly and where aftercooler cleaning is required.Configuration 5
This configuration uses four different circuits to make optimum use of the heat recovery capabilities of each of the cooling system components on the engine with a two stage aftercooler. The
This configuration cools the first stage of the aftercooler in parallel with the engine water jacket. This allows for 45-50 percent of the aftercooler heat load to be rejected to the high temperature jacket water circuit. The second stage of the aftercooler is cooled in parallel with the engine oil cooler, similar to a single stage aftercooler. The overall radiator sizing for this configuration will be significantly reduced compared to the single stage aftercooler, as the low temperature portion of the heat load (from second stage aftercooler) is reduced by half from the single stage aftercooler configuration.Configuration 2
This configuration is similar to the standard cooling system on G3612 and G3616 engines, with an additional circuit for the first stage of the two stage aftercooler. This additional stage requires a customer supplied pump. As much as 82 percent of the aftercooler heat load can be recovered from the first stage with this configuration. The inlet temperature and pressure limits for the first stage aftercooler are shown on the schematic.Configuration 3
This configuration uses a two stage aftercooler connected in series for better cooling capability. The overall effectiveness of the aftercooler is increased significantly which helps in providing more detonation margin and lowering the deration factor for all applications. This is also recommended for applications where raw water is used for cooling the aftercooler directly and where mechanically cleanable aftercoolers are required.Configuration 4
This configuration uses a two stage aftercooler connected in series for better cooling capability while allowing a higher temperature cooling of the oil cooler. The oil cooler needs a customer supplied pump for circulation. The overall effectiveness of the aftercooler is increased significantly which helps in providing more detonation margin and lowering the deration factor for all applications. This is also recommended for applications where raw water is used for cooling the aftercooler directly and where aftercooler cleaning is required.Configuration 5
This configuration uses four different circuits to make optimum use of the heat recovery capabilities of each of the cooling system components on the engine with a two stage aftercooler. The
Caterpillar SIS machinery equipment:
Caterpillar SIS
313D2 L Excavator LCY00001-UP (MACHINE) POWERED BY C4.4 Engine »
390-8830
FAN AR-SUCTION
313D2 Excavator PLD00001-UP (MACHINE) POWERED BY 3054C Engine »
390-8830
FAN AR-SUCTION
312D2 GC Excavator RXZ00001-UP (MACHINE) POWERED BY 3054C Engine »
390-8830
FAN AR-SUCTION
312D2 & 312D2 L Excavators TJY00001-UP (MACHINE) POWERED BY 3054C Engine »
390-8830
FAN AR-SUCTION
313D2 Excavator ZAA00001-UP (MACHINE) POWERED BY 3054C Engine »
390-8830
FAN AR-SUCTION
313D2 LGP Excavator GAJ00001-UP (MACHINE) POWERED BY 3054C Engine »
390-8830
FAN AR-SUCTION
313D2 & 313D2 GC Excavators FAP00001-UP (MACHINE) POWERED BY C4.4 Engine »
390-8830
FAN AR-SUCTION
Caterpillar parts catalog:
Parts fan Caterpillar catalog:
3908831
FAN AR-SUCTION
312D2, 312D2 GC, 312D2 L, 313D2, 313D2 LGP
312D2, 312D2 GC, 312D2 L, 313D2, 313D2 LGP
3908834
FAN GP-SUCTION
312D2, 312D2 GC, 312D2 L, 313D2, 313D2 LGP
312D2, 312D2 GC, 312D2 L, 313D2, 313D2 LGP
1352407
FAN
311B, 311C, 311D LRR, 312B, 312C, 312C L, 312D, 312D L, 312D2, 312D2 GC, 312D2 L, 313D, 313D2, 313D2 LGP, 314C, 314D CR, 314D LCR
311B, 311C, 311D LRR, 312B, 312C, 312C L, 312D, 312D L, 312D2, 312D2 GC, 312D2 L, 313D, 313D2, 313D2 LGP, 314C, 314D CR, 314D LCR
1565056
FAN GP-SUCTION
TK1051
TK1051
2955123
FAN GP-SUCTION
770G, 770G OEM, 772G, 772G OEM
770G, 770G OEM, 772G, 772G OEM
3486855
FAN & MOTOR GP
D6K LGP, PL61
D6K LGP, PL61
3520681
FAN GP-SUCTION
349E, 349E L, 349E L HVG, 349E L VG, 349F L
349E, 349E L, 349E L HVG, 349E L VG, 349F L
1270361
FAN AS-REVERSE
D6D, D6E, D6E SR
D6D, D6E, D6E SR
3475011
FAN GP-SUCTION
836K, 988K
836K, 988K
1477066
FAN GP-SUCTION
365B, 365B II, 365B L
365B, 365B II, 365B L
2063676
FAN AR-EJECTOR
D6R II, D6R III
D6R II, D6R III
2467097
FAN & MOTOR GP
120M, 12M
120M, 12M
2Y8680
FAN GP-BLOWER
966C, 966R
966C, 966R