3815706 LINES GP-EXHAUST Caterpillar parts
730C, 770G, 770G OEM, 980M, 982M, C13, C15, C9.3
Rating:
Alternative (cross code) number:
CA3815706
381-5706
3815706
CA3815706
381-5706
3815706
ARTICULATED TRUCK, WHEEL LOADER,
Compatible equipment models: 3815706:
Information:
Principle Features
The benefits of FCAW are achieved by combining three general features.1. The productivity of continuos wire welding.2. The metallurgical benefits that can be derived from flux.3. A slag that supports and shapes the weld bead.FCAW combines the characteristics of Shielded Metal Arc Welding (SMAW), Gas Metal Arc Welding (GMAW), and Submerged Arc Welding (SAW).Advantages of FCAW
Flux Cored Arc Welding has many advantages over the manual SMAW process and provides certain advantages over the SAW and GMAW processes. In many applications, the FCAW process provides high quality weld metal at lower cost with less effort on the part of the welder than SMAW. These advantages can be listed as follows.* High quality weld metal deposit.* Excellent weld appearance and smooth, uniform welds.* Excellent contour of horizontal fillet welds. * Many welds weldable over a wide thickness range.* High operating factor, easily mechanized.* High deposition rate, high current density.* Relatively high electrode deposit efficiency.* Economical engineering joint design.* Visible arc, easy to use.* Less precleaning required than GMAW.* Up to 4 times greater deposition rate than SMAW.* Higher tolerance for contaminants that may cause weld cracking.* Resistant to underbead cracking.Limitations of FCAW
* FCAW is presently limited to welding ferrous metals and nickel based alloys.* The process produces a slag covering which must be removed.* FCAW electrode wire is more expensive on a weight basis than solid electrode wires, except for some high alloys steels.* The equipment is more expensive and complex than that required for SMAW; however, increased productivity usually compensates for this.* The wire feeder and power source must be fairly close to the point of welding.* For gas shielded version, the external gas shield may be adversely affected by breezes and drafts.* More smoke and fumes are generated (compared to GMAW and SAW).Fundamentals of the process
Definition
The Flux-Cored Arc Welding process is a process in which coalescence is produced by heating with an arc between a continuous filler metal (consumable) electrode and the work. Shielding is obtained from a flux contained within the electrode. Additional shielding may or may not be obtained from an externally supplied gas or gas mixture.Slang names
1. FabCo - Fabshield-Inner Shield - Dual ShieldProcess Principles
1. Heat source - an arc between a continuous filler metal electrode and the weld spot.2. Shielding - is obtained from flux contained within the tubular electrode and with or without additional shielding from an externally supplied gas.3. Filler metal - is obtained from a continuously-feeding tubular electrode.4. Flux - will provide deoxidizers, ionizers, purifying agents, and in some cases alloying elements.
Figure 21Methods of Application
1. Manual - not applicable.2. Semiautomatic - most popular method of application.3. Machine - widely used.4. Automatic - widely used.Metals Weldable
Thickness Range
Figure 22Position Capabilities
* Grooves - all positions depending on size and type.* Fillets - all positions depending on size and type.* Limitations - would depend on skill of the operator.Electrical Requirements
Welding Circuit
Figure 23Welding Current Types
* D.C.E.N. or D.C.E.P. depending on type of wire.Power Source Types and Characteristics
* Constant voltage type with a flat volt amp
The benefits of FCAW are achieved by combining three general features.1. The productivity of continuos wire welding.2. The metallurgical benefits that can be derived from flux.3. A slag that supports and shapes the weld bead.FCAW combines the characteristics of Shielded Metal Arc Welding (SMAW), Gas Metal Arc Welding (GMAW), and Submerged Arc Welding (SAW).Advantages of FCAW
Flux Cored Arc Welding has many advantages over the manual SMAW process and provides certain advantages over the SAW and GMAW processes. In many applications, the FCAW process provides high quality weld metal at lower cost with less effort on the part of the welder than SMAW. These advantages can be listed as follows.* High quality weld metal deposit.* Excellent weld appearance and smooth, uniform welds.* Excellent contour of horizontal fillet welds. * Many welds weldable over a wide thickness range.* High operating factor, easily mechanized.* High deposition rate, high current density.* Relatively high electrode deposit efficiency.* Economical engineering joint design.* Visible arc, easy to use.* Less precleaning required than GMAW.* Up to 4 times greater deposition rate than SMAW.* Higher tolerance for contaminants that may cause weld cracking.* Resistant to underbead cracking.Limitations of FCAW
* FCAW is presently limited to welding ferrous metals and nickel based alloys.* The process produces a slag covering which must be removed.* FCAW electrode wire is more expensive on a weight basis than solid electrode wires, except for some high alloys steels.* The equipment is more expensive and complex than that required for SMAW; however, increased productivity usually compensates for this.* The wire feeder and power source must be fairly close to the point of welding.* For gas shielded version, the external gas shield may be adversely affected by breezes and drafts.* More smoke and fumes are generated (compared to GMAW and SAW).Fundamentals of the process
Definition
The Flux-Cored Arc Welding process is a process in which coalescence is produced by heating with an arc between a continuous filler metal (consumable) electrode and the work. Shielding is obtained from a flux contained within the electrode. Additional shielding may or may not be obtained from an externally supplied gas or gas mixture.Slang names
1. FabCo - Fabshield-Inner Shield - Dual ShieldProcess Principles
1. Heat source - an arc between a continuous filler metal electrode and the weld spot.2. Shielding - is obtained from flux contained within the tubular electrode and with or without additional shielding from an externally supplied gas.3. Filler metal - is obtained from a continuously-feeding tubular electrode.4. Flux - will provide deoxidizers, ionizers, purifying agents, and in some cases alloying elements.
Figure 21Methods of Application
1. Manual - not applicable.2. Semiautomatic - most popular method of application.3. Machine - widely used.4. Automatic - widely used.Metals Weldable
Thickness Range
Figure 22Position Capabilities
* Grooves - all positions depending on size and type.* Fillets - all positions depending on size and type.* Limitations - would depend on skill of the operator.Electrical Requirements
Welding Circuit
Figure 23Welding Current Types
* D.C.E.N. or D.C.E.P. depending on type of wire.Power Source Types and Characteristics
* Constant voltage type with a flat volt amp
Caterpillar SIS machinery equipment:
Caterpillar SIS
R1700 Load Haul Dump KT400001-UP (MACHINE) POWERED BY C13 Engine »
381-5706
LINES GP-EXHAUST
730C2 Articulated Truck 2T400001-UP (MACHINE) POWERED BY C13 Engine »
381-5706
LINES GP-EXHAUST
730C2 Ejector Articulated Truck 2T500001-UP (MACHINE) POWERED BY C13 Engine »
381-5706
LINES GP-EXHAUST
980M Wheel Loader MK200001-UP (MACHINE) POWERED BY C13 Engine »
381-5706
LINES GP-EXHAUST
982M Wheel Loader MK600001-UP (MACHINE) POWERED BY C13 Engine »
381-5706
LINES GP-EXHAUST
XQ425 Generator Set X3F00001-UP POWERED BY C13 »
381-5706
LINES GP-EXHAUST
745 Articulated Truck 3T600001-UP (MACHINE) POWERED BY C18 Engine »
381-5706
LINES GP-EXHAUST
740EJ Articulated Truck 3T700001-UP (MACHINE) POWERED BY C18 Engine »
381-5706
LINES GP-EXHAUST
XQ425 Generator Set X8H00001-UP POWERED BY C13 Engine »
381-5706
LINES GP-EXHAUST
631K OEM Wheel-Tractor Sctraper WT400001-UP (MACHINE) POWERED BY C18 Engine »
381-5706
LINES GP-EXHAUST
986K Wheel Loader SWH00001-UP (MACHINE) POWERED BY C15 Engine »
381-5706
LINES GP-EXHAUST
740 Articulated Truck 3T800001-UP (MACHINE) POWERED BY C15 Engine »
381-5706
LINES GP-EXHAUST
980M Wheel Loader XDJ00001-UP (MACHINE) POWERED BY C13 Engine »
381-5706
LINES GP-EXHAUST
982M Wheel Loader XDL00001-UP (MACHINE) POWERED BY C13 Engine »
381-5706
LINES GP-EXHAUST
980M Wheel Loader WW300001-UP (MACHINE) POWERED BY C13 Engine »
381-5706
LINES GP-EXHAUST
982M Wheel Loader WMD00001-UP (MACHINE) POWERED BY C13 Engine »
381-5706
LINES GP-EXHAUST
986K Wheel Loader MH800001-UP (MACHINE) POWERED BY C15 Engine »
381-5706
LINES GP-EXHAUST
735 Articulated Truck 3T500001-UP (MACHINE) POWERED BY C13 Engine »
381-5706
LINES GP-EXHAUST
730 Ejector Articulated Truck 3T400001-UP (MACHINE) POWERED BY C13 Engine »
381-5706
LINES GP-EXHAUST
730 Articulated Truck 3T300001-UP (MACHINE) POWERED BY C13 Engine »
381-5706
LINES GP-EXHAUST
770G Off-Highway Truck KD200001-UP (MACHINE) POWERED BY C15 Engine »
381-5706
LINES GP-EXHAUST
R2900 Load Haul Dump ZLK00001-UP (MACHINE) POWERED BY C15 Engine »
381-5706
LINES GP-EXHAUST
980M Wheel Loader KRS00001-UP (MACHINE) POWERED BY C13 Engine »
381-5706
LINES GP-EXHAUST
730C Articulated Truck TFF00001-UP (MACHINE) POWERED BY C13 Engine »
381-5706
LINES GP-EXHAUST
770G Off-Highway Truck KDH00001-UP (MACHINE) POWERED BY C15 Engine »
381-5706
LINES GP-EXHAUST
770G OEM Off-Highway Truck RMA00001-UP (MACHINE) POWERED BY C15 Engine »
381-5706
LINES GP-EXHAUST
C13 Industrial Engine N3F00001-UP »
381-5706
LINES GP-EXHAUST
982M Wheel Loader K1Y00001-UP (MACHINE) POWERED BY C13 Engine »
381-5706
LINES GP-EXHAUST
982M Wheel Loader F9A00001-UP (MACHINE) POWERED BY C13 Engine »
381-5706
LINES GP-EXHAUST
980M Wheel Loader N8T00001-UP (MACHINE) POWERED BY C13 Engine »
381-5706
LINES GP-EXHAUST
735C Articulated Truck TFJ00001-UP (MACHINE) POWERED BY C15 Engine »
381-5706
LINES GP-EXHAUST
745C Articulated Truck TFK00001-UP (MACHINE) POWERED BY C18 Engine »
381-5706
LINES GP-EXHAUST
740C Ejector Articulated Truck TFN00001-UP (MACHINE) POWERED BY C18 Engine »
381-5706
LINES GP-EXHAUST
730C Ejector Articulated Truck TFH00001-UP (MACHINE) POWERED BY C13 Engine »
381-5706
LINES GP-EXHAUST
C9.3 Industrial Engine CS900001-UP »
381-5706
LINES GP-EXHAUST
C15 Industrial Engine N5F00001-UP »
381-5706
LINES GP-EXHAUST
631K Wheel Tractor Scraper WTR00001-UP (MACHINE) POWERED BY C18 ENGINE »
381-5706
LINES GP-EXHAUST
637K Wheel Tractor Scraper WTS00001-UP (MACHINE) »
381-5706
LINES GP-EXHAUST
637K Wheel Tractor Scraper WTT00001-UP (MACHINE) »
381-5706
LINES GP-EXHAUST
C13 XQ375 Rental Generator Set X3F00001-UP »
381-5706
LINES GP-EXHAUST
Cat SIS web machinery list:
Parts lines Caterpillar catalog:
3503121
LINES GP-WATER
374F L, 735B, 740B, 770G, 770G OEM, 772G, 772G OEM, 824K, 825K, 826K, 834K, 836K, 988K, C15, C18, CX31-C18I, CX35-C18I, D9T
374F L, 735B, 740B, 770G, 770G OEM, 772G, 772G OEM, 824K, 825K, 826K, 834K, 836K, 988K, C15, C18, CX31-C18I, CX35-C18I, D9T
1489972
LINES GP-SERVICE BRAKE
725, 725C, 730, 730C
725, 725C, 730, 730C
3447261
LINES GP-FUEL
980K, 980K HLG, 980M, 982M
980K, 980K HLG, 980M, 982M
3733617
LINES GP-STEERING
725C, 730C
725C, 730C
3091641
LINES GP-STEERING
770G, 770G OEM, 772G, 772G OEM
770G, 770G OEM, 772G, 772G OEM
3893911
LINES GP-ENGINE OIL
980K, 980K HLG, 980M, 982M
980K, 980K HLG, 980M, 982M
4374926
LINES GP-ENGINE OIL
770G, 770G OEM, 772G, 772G OEM
770G, 770G OEM, 772G, 772G OEM
3275207
LINES GP-EXHAUST COMBUSTION
D7E, D7E LGP
D7E, D7E LGP
2827288
LINES GP-PILOT
314D CR, 314D LCR
314D CR, 314D LCR
3484116
LINES GP-AIR CONDITIONER
568 FM LL
568 FM LL
3350954
LINES GP-AIR
C9.3
C9.3
2542671
LINES GP-AUXILIARY HYDRAULIC
M315D, M316D
M315D, M316D
1953597
LINES GP-AUXILIARY HYDRAULIC
365B, 365B II, 365C, 365C L
365B, 365B II, 365C, 365C L
1728019
LINES GP-PRELUBRICATION
3606, 3608, 3612, 3616, C280-12, C280-16, C280-6, C280-8
3606, 3608, 3612, 3616, C280-12, C280-16, C280-6, C280-8
7C9318
LINES GP-AIR
3612, 3616
3612, 3616