filler metal data handbook_complete
TRANSCRIPT
1-1
COVERED ELECTRODESSection 1
DESCRIPTION PAGE
Electrode Selection ..............................................1-2
Aws Filler Metal SpecificationA5.1 Mild Steel Electrodes ...................................1-3
Sureweld Mild Steel Electrodes ............................. 1-4Additional Sureweld Electrodes ........................... 1-14Sureweld Deposition Data & Current Ranges ..... 1-15Stub Loss Correction Table ................................ 1-17Sureweld Electrodes Per Pound (kg) .................. 1-18
Atom Arc Iron PowderLow Hydrogen Electrodes .................................1-19
Moisture Resistant Coating .................................. 1-19Electrode Storage ................................................ 1-19
Aws Filler Metal SpecificationA5.5 Low Alloy Steel Covered Electrodes .........1-20
Atom Arc E7018 Types ........................................ 1-21Carbon Molybdenum (C-Mo) ............................... 1-25Chromium-Molybdenum (Cr-Mo) Electrodes .......... 1-26Nickel (Ni) Steel Electrodes ................................. 1-32High Strength Steel Electrodes (90 to 120 ksi) ........... 1-35Special Purpose Electrode .................................. 1-40Heat Treatable Electrodes ................................... 1-41Additional Atom Arc Electrodes ........................... 1-43Atom Arc Welding Procedure ............................... 1-44Atom Arc Electrodes Per Pound (kg) ................... 1-44Atom Arc Deposition Data & Current Ranges ..... 1-45
GEN-26110_01.p65 7/10/01, 4:00 PM1
1-2
Electrode Selection
The following points should be considered whenselecting the proper coated electrode.
1. Match the mechanical properties of the basemetal.
2. Match the chemical composition of the basemetal as closely as possible.
3. Match electrode to available power supply —AC or DCEN (electrode negative) or DCEP(electrode positive).
4. Match the electrode to the position of theweld.
5. Observe joint design — Use deep penetrat-ing electrodes for tight fit-up and unbeveledjoints. Use light penetration electrodes forpoor fit-up and thin material.
6. Observe service conditions and selectelectrode accordingly — High temperature,low temperature, corrosive atmosphere,impact loading. These conditions are bestmet by using low hydrogen electrodes.
7. Consider welding costs — Highest deposi-tion rate is in the flat position. Use high ironpower electrodes to further increase deposi-tion. By far, the largest factor is labor andoverhead.
GEN-26110_01.p65 7/10/01, 4:00 PM2
1-3
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GEN-26110_01.p65 7/10/01, 4:00 PM3
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Mild Steel Covered ElectrodesSureweld 10P-PlusAWS Class E6010DCEP (Electrode Positive)Electrode Imprint Marking: 6010
Code and Specification Data:AWS A5.1, Class E6010ABS - AWS A5.1CWB - CSA 48.1, E41010Description:The gray coated Sureweld 10P-Plus is a modified version ofthe standard 10P electrode. It has also been developed forthe pipe welding industry but has a more consistent burn-offand a more forgiving arc burn. This provides a better beadprofile and sidewall fusion with lower spatter. Sureweld 10P-Plus will maintain the proper keyhole in an open root and willproduce X-ray quality joints in the flat, horizontal, overhead,vertical-up, and vertical-down procedures.Sureweld 10P is recommended for welding API grades A25,A, B, and X42 pipe and general structural, ship, barge, andstorage tank fabrication. May be used for welding rootpasses in higher grade pipe in some circumstances.Procedure:Hold a short arc, but do not allow the coating to touch themolten pool. A slight oscillating motion is recommended inthe horizontal and flat positions. Use a short whippingmotion on vertical and overhead welds, allowing onlyenough time out of the crater for the metal to set up. Cleanthoroughly between passes. Vertical down and flat positionwelds should be made at approximately the sameamperages.Typical Mechanical Properties
As Welded
Yield Strength, psi (MPa) 67,100 (463)Tensile Strength, psi (MPa) 79,800 (550)% Elongation in 2" (51 mm) 29
Typical Charpy V-Notch PropertiesAs Welded
Testing Temp. ft.-lbs. (J)
0°F (-18°C) 27 (37)-20°F (-29°C) 22 (30)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S
0.12 0.28 0.18 0.009 0.017
Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm)Packaged in Hermetically Sealed Containers (HSC)Recommended Welding Parameters page 1-15
GEN-26110_01.p65 7/10/01, 4:00 PM4
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Sureweld 10PAWS Class E6010DCEP (Electrode Positive)Electrode Imprint Marking: 6010Code and Specification Data:AWS A5.1, Class E6010ABS - AWS A5.1CWB-CSA 48.1, E41010Description:The new red coated Sureweld 10P is an all-position cellulosicelectrode developed for the pipe welding industry to improveductility in the weld deposit while maintaining the standardwelding characteristics needed for a pipe welding electrode.Sureweld 10P produces a steady, deep penetrating arc andmaintains the proper keyhole in an open root. This electrodewill produce X-ray quality joints in flat, horizontal, overhead,vertical-up, and vertical-down procedures.Sureweld 10P is recommended for welding API grades A25,A, B, and X42 pipe and general structural, ship, barge, andstorage tank fabrication. It may also be used for weldingroot passes in higher grade pipe in some circumstances.Procedure:Hold a short arc, but do not allow the coating to touch themolten pool. A slight oscillating motion is recommendedin the horizontal and flat positions. Use a short whippingmotion on vertical and overhead welds, allowing onlyenough time out of the crater for the metal to set up. Cleanthoroughly between passes. Vertical down and flat positionwelds should be made at approximately the sameamperages.Typical Mechanical Properties
As Welded
Yield Strength, psi (MPa) 67,100 (463)Tensile Strength, psi (MPa) 79,800 (550)% Elongation in 2" (51 mm) 29
Typical Charpy V-Notch PropertiesAs Welded
Testing Temp. ft.-lbs. (J)
0°F (-18°C) 27 (37)-20°F (-29°C) 22 (30)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S
0.12 0.28 0.18 0.009 0.017
Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm)Packaged in Hermetically Sealed Containers (HSC)Recommended Welding Parameters page 1-15
GEN-26110_01.p65 7/10/01, 4:00 PM5
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Mild Steel Covered ElectrodesSureweld 710PAWS Class E7010-P1DCEP (Electrode Positive)Electrode Imprint Marking: 7010-P1Code and Specification Data:AWS A5.5, Class E7010-P1CWB-CSA 48.1, E41010Description:Sureweld 710P is an all-position cellulosic electrode that isespecially suited for welding high strength pipe. It producesthe consistent, deep penetration required to maintain aproper keyhole when vertical-down welding in open root pipejoints. X-ray quality joints can be produced with Sureweld710P using flat, horizontal, overhead, vertical-up, andvertical-down welding procedures.Sureweld 710P is recommended for welding API gradesX46, X52, and X56 pipe. It may also be used for welding rootpasses in higher grade pipe in some circumstances.Procedure:Hold a short arc, but do not allow the coating to touch themolten pool. A slight oscillating motion is recommended inthe horizontal and flat positions. Use a short whippingmotion on vertical and overhead welds, allowing onlyenough time out of the crater for the metal to set up.Clean thoroughly between passes. Vertical down weldsshould be made at approximately the same amperages asrecommended for the flat position.Typical Mechanical Properties
As Welded
Yield Strength, psi (MPa) 69,800 (481)Tensile Strength, psi (MPa) 81,200 (560)% Elongation in 2" (51 mm) 22
Typical Charpy V-Notch PropertiesAs Welded
Testing Temp. ft.-lbs. (J)
-20°F (-29°C) 29 (39)-50°F (-46°C) 26 (35)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Ni Mo
0.10 0.31 0.18 0.008 0.016 0.53 0.24
Standard Diameters1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm)
Packaged in Hermetically Sealed Containers (HSC)
Additional Sureweld Electrodes listed on page 1-14
GEN-26110_01.p65 7/10/01, 4:00 PM6
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Sureweld 810PAWS Class E8010-P1DCEP (Electrode Positive)Electrode Imprint Marking: 8010-P1
Code and Specification Data:AWS A5.5, Class E8010-P1CWB-CSA 48.1, E41010
Description:Sureweld 810P is an all-position cellulosic electrode that isespecially suited for welding high strength pipe. It producesthe consistent, deep penetration required to maintain aproper keyhole when vertical-down welding in open root pipejoints. X-ray quality joints can be produced with Sureweld810P using flat, horizontal, overhead, vertical-up, andvertical-down welding procedures.Sureweld 810P is recommended for welding API gradesX60, X65, and X70 pipe.
Procedure:Hold a short arc, but do not allow the coating to touch themolten pool. A slight oscillating motion is recommended inthe horizontal and flat positions. Use a short whippingmotion on vertical and overhead welds, allowing onlyenough time out of the crater for the metal to set up.Clean thoroughly between passes. Vertical down weldsshould be made at approximately the same amperages asrecommended for the flat position.
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 72,700 (501)Tensile Strength, psi (MPa) 88,300 (609)% Elongation in 2" (51 mm) 24
Typical Charpy V-Notch PropertiesAs Welded
Testing Temp. ft.-lbs. (J)
-20°F (-29°C) 31 (42)-50°F (-46°C) 25 (34)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Ni Mo
0.10 0.48 0.24 0.008 0.014 0.98 0.11
Standard Diameters1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm)
Packaged in Hermetically Sealed Containers (HSC)
Recommended Welding Parameters page 1-15
GEN-26110_01.p65 7/10/01, 4:00 PM7
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Mild Steel Covered ElectrodesSureweld SW-14AWS Class E6011AC-DCEP (Electrode Positive)Electrode Imprint Marking: 6011
Code and Specification Data:AWS A5.1, ASME SFA 5.1 (A-1, F-3)ABS - AWS A5.1Military - MIL-6011CWB-CSA W48.1, E41011
Description:Sureweld SW-14 is an all-position cellulosic electrodedesigned for AC. It produces an easily controlled forceful arcwith deep penetration and a high quality weld metal whichwill pass specification requirements for radiography.Typical applications include welding of bridges, buildings,piping, shipbuilding, pressure vessels, and tanks.
Procedure:Hold a medium to short arc tilted 5 to 15° in the direction oftravel with the electrode at an angle of 45° to each plate infillet welds. Weave with slight oscillating motion, hesitating atthe edges to insure proper fusion. Clean slag beforedepositing next bead.
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 66,800 (460)Tensile Strength, psi (MPa) 76,100 (525)% Elongation in 2" (51 mm) 22% Reduction in Area 56
Typical Charpy V-Notch PropertiesAs Welded
Testing Temp. ft.-lbs. (J)
-20°F (-29°C) 31 (42)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S
0.10 0.36 0.15 0.012 0.016
Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm)
Packaged in Hermetically Sealed Containers (HSC)
Additional Sureweld Electrodes listed on page 1-14
GEN-26110_01.p65 7/10/01, 4:00 PM8
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Sureweld SW-612AWS Class E6012AC-DCEN (Electrode Negative)Electrode Imprint Marking: 6012
Code and Specification Data:AWS A5.1, ASME SFA 5.1 (A-1, F-2)CWB-CSA W48.1, E41012
Description:Sureweld SW-612 is a multi-purpose rutile electrode thatretains advantage of poor fit-up welding and convex beadalong with smooth arc of iron powder. It also takes highamperage of production welding.Typical applications include truck bodies, trailers, tanks,farm machinery, and auto parts.
Procedure:With the electrode tilted 5 to 15° in the direction of travel,hold a short arc or lightly touch coating to work holdingsufficient current so electrode does not stick. For verticalwelding, weld from the bottom up for heavy beads andfrom the top down for small beads.
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa)` 62,300 (430)Tensile Strength, psi (MPa) 69,400 (479)% Elongation in 2" (51 mm) 21% Reduction in Area 54
Typical Undiluted Weld Metal Analysis (%) C Mn Si P S
0.05 0.31 0.12 0.008 0.016
Standard Diameters1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm), 1/4" (6.4 mm)
Recommended Welding Parameters page 1-15
GEN-26110_01.p65 7/10/01, 4:00 PM9
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Mild Steel Covered ElectrodesSureweld SW-15AWS Class E6013AC-DCEN (Electrode Negative)Electrode Imprint Marking: 6013
Code and Specification Data:AWS A5.1, ASME SFA 5.1 (A-1, F-2)ABS - AWS A5.1CWB-CSA W48.1, E41013
Description:Sureweld SW-15 has a wide range of applications for lightgauge and heavy plate. High heat and speeds can beused without undercut. Slag easy to clean and on heavyplates is often self-cleaning.Typical applications include metal fixtures, road equip-ment, farm machinery, building structures, storage tanks,iron work.
Procedure:For flat welds, tilt 5 to 10° in direction of travel holding amedium arc. On horizontal fillets, tilt 5 to 15° in directionof travel at an angle bisecting vertical and base plate,maintaining a short arc length. Vertical-up, use a weaving“U” or “V” arc motion using medium to short arc length.With overhead use a circular motion.
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 63,000 (434)Tensile Strength, psi (MPa) 71,000 (490)% Elongation in 2" (51 mm) 24% Reduction in Area 49
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S
0.06 0.32 0.23 0.012 0.013
Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm),7/32" (5.6 mm), 1/4" (6.4 mm)
Additional Sureweld Electrodes listed on page 1-14
GEN-26110_01.p65 7/10/01, 4:00 PM10
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Sureweld 6013-LVAWS Class E6013AC-DCEN (Electrode Negative)Electrode Imprint Marking: 6013
Code and Specification Data:AWS A5.1, ASME SFA 5.1CWB-CSA W48.1, E41013
Description:Sureweld 6013-LV is an all-position multi-purposeelectrode is designed for light duty applications. It isideally suited for the hobbyist welder. The low voltagefeature permits its use on AC power sources that haveless than 50 open circuit volts.6013-LV can be used on thin gauge carbon and galva-nized steels. Excellent choice for applications whereoffsets or fit-up is a problem.
Procedure:Maintain a short arc, tilt electrode 5 to 15° in the directionof travel for flat and horizontal fillets. When weldingvertical, use a weaving “U” or “V” motion. Clean slagthoroughly between passes.
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 65,300 (451)Tensile Strength, psi (MPa) 74,400 (513)% Elongation in 2" (51 mm) 27% Reduction in Area 52
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S
0.08 0.39 0.24 0.020 0.015
Standard Diameters5/64" (2.0 mm), 3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm)
Recommended Welding Parameters page 1-16
GEN-26110_01.p65 7/10/01, 4:00 PM11
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Mild Steel Covered ElectrodesSureweld SW-15 IPAWS Class E7014AC-DCElectrode Imprint Marking: 7014
Code and Specification Data:AWS A5.1, ASME SFA 5.1 (A-1, F-2)ABS - AWS A5.1
Description:Sureweld SW-15 IP is an iron-powder electrode permittingthe use of higher welding currents while improving thedeposition rate and efficiency. High speeds and highheats can be used without undercut. Slag removal isexcellent.Typical applications include construction equipment,metal fixtures, automotive parts, barges and farm machin-ery.
Procedure:Open or drag technique may be used. Use medium toshort arc on open arc. When welding vertical-up, tilt theelectrode 5-15° in the direction of travel and use aweaving “U” or “V” arc motion while holding a medium toshort arc length. A circular arc motion is preferred forwelding overhead. Clean slag thoroughly betweenpasses.
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 61,000 (421)Tensile Strength, psi (MPa) 71,300 (492)% Elongation in 2" (51 mm) 28% Reduction in Area 64
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S
0.04 0.31 0.14 0.015 0.019
Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm)
Additional Sureweld Electrodes listed on page 1-14
GEN-26110_01.p65 7/10/01, 4:00 PM12
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Sureweld 7024AWS Class E7024: Conforms to 7024-1AC-DCElectrode Imprint Marking: 7024 2Y
Code and Specification Data:AWS A5.1, ASME SFA 5.1 (A-1, F-1)ABS Filler Grade 2-2Y (non-low hydrogen)Military - AWS A5.1CWB-CSA W48.1, E48024
Description:Sureweld 7024 is a high speed, heavy-coated, iron-powder electrode for high deposition rates on horizontaland downhand welding. Excellent operator appeal,produces equal leg 45° fillets, thereby eliminating over-welding. Excellent bead appearance and self-cleaningslag. This electrode has good weldability and superiormechanical properties. It is particularly useful in obtainingincreased penetration with little or no root porosity inhorizontal or positioned fillets.7024 is ideal for making high speed horizontal fillet and lapwelds on mild and some alloy steels, such as earth-movingand construction equipment, truck bodies, ships, barges,and railcars.
Procedure:Drag technique should be used on horizontal and flat fillets.Tilt electrodes 5 to 10° in direction of travel and 40 to 50°from base plate in horizontal fillet. No weaving is neces-sary.
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 71,000 (490)Tensile Strength, psi (MPa) 81,000 (559)% Elongation in 2" (51 mm) 26% Reduction in Area 63
Typical Charpy V-Notch PropertiesAs Welded
Testing Temp. ft.-lbs. (J)0°F (-18°C) 25 (34)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S
0.06 0.80 0.27 0.010 0.018
Standard Diameters1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm), 7/32" (5.6 mm),1/4" (6.4 mm)
Recommended Welding Parameters page 1-17
GEN-26110_01.p65 7/10/01, 4:00 PM13
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Additional Sureweld Electrodes*
Sureweld SW-75 (E7010-A1)Sureweld SW-70LA-2 (E7016)* Note: For technical information contact the Marketing
Department
NOTES
GEN-26110_01.p65 7/10/01, 4:00 PM14
1-15
Electrode DimensionConversion Chart
Diameter LengthInches mm Inches mm
5/64 2.0 12 3003/32 2.4 12 3001/8 3.2 14 350
5/32 4.0 14 3503/16 4.8 14 3507/32 5.6 18 4501/4 6.4 18 450
5/16 8.0 18 450
Sureweld Coated ElectrodeDeposition Data and CurrentRanges*
Electrode DepositionDiameter Range Optimum Rate lbs./hr. Efficiencyin. (mm) Amperage Amperage (kg/hr) %
E6010/E7010-A1/E7010-P1/E8010-P13/32 (2.4) 40-75 75 1.5 (0.7) 72.01/8 (3.2) 80-140 100 2.1 (0.9) 76.3
80-140 130 2.3 (1.0) 68.85/32 (4.0) 130-175 140 2.8 (1.3) 73.6
130-175 170 2.9 (1.3) 64.13/16 (4.8) 150-210 160 3.3 (1.5) 74.9
150-210 190 3.5 (1.6) 69.77/32 (5.6) 180-275 190 4.5 (2.0) 76.9
180-275 230 5.1 (2.3) 73.1
E60113/32 (2.4) 60-80 75 1.3 (0.6) 61.01/8 (3.2) 90-130 120 2.3 (1.0) 70.7
5/32 (4.0) 130-160 150 3.7 (1.7) 77.03/16 (4.8) 155-190 180 4.1 (1.9) 73.47/32 (5.6) 175-220 210 5.0 (2.3) 74.21/4 (6.4) 225-260 250 5.6 (2.5) 71.9
E60121/8 (3.2) 110-140 130 2.9 (1.3) 81.8
5/32 (4.0) 140-200 165 3.2 (1.5) 78.8140-200 200 3.4 (1.5) 69.0
3/16 (4.8) 150-280 220 4.0 (1.8) 77.0150-280 250 4.2 (1.9) 74.5
7/32 (5.6) 180-300 320 5.6 (2.5) 69.81/4 (6.4) 300-400 320 5.6 (2.5) 70.0
300-400 360 6.6 (3.0) 67.7300-400 380 7.1 (3.2) 66.0
* Note: Efficiencies for coated electrodes do not include stubloss.
GEN-26110_01.p65 7/10/01, 4:00 PM15
1-16
Sureweld Coated ElectrodeDeposition Data and CurrentRanges*
Electrode DepositionDiameter Range Optimum Rate lbs./hr. Efficiencyin. (mm) Amperage Amperage (kg/hr) %
E6013/E6013LV5/64 (2.0) 40-60 50 1.4 (0.6) 73.03/32 (2.4) 60-90 85 1.6 (0.7) 73.01/8 (3.2) 120-135 125 2.1 (1.0) 73.0
5/32 (4.0) 145-190 140 2.6 (1.2) 75.6145-190 160 3.0 (1.4) 74.1145-190 180 3.5 (1.6) 71.2
3/16 (4.8) 170-230 180 3.2 (1.5) 73.9170-230 200 3.8 (1.7) 71.1170-230 220 4.1 (1.9) 72.9
7/32 (5.6) 260-300 250 5.3 (2.4) 71.3260-300 270 5.7 (2.6) 73.0260-300 290 6.1 (2.8) 72.7
1/4 (6.4) 300-340 290 6.2 (2.8) 75.0300-340 310 6.5 (2.9) 73.5300-340 330 7.1 (3.2) 72.1
E70143/32 (2.4) 70-100 85 2.0 (0.9) 60.01/8 (3.2) 100-150 120 2.4 (1.1) 63.9
100-150 150 3.1 (1.4) 61.15/32 (4.0) 160-200 160 3.0 (1.4) 71.9
160-200 200 3.7 (1.7) 67.03/16 (4.8) 190-270 230 4.5 (2.0) 70.9
190-270 270 5.5 (2.5) 73.27/32 (5.6) 230-300 290 5.8 (2.6) 67.2
230-300 330 7.1 (3.2) 70.31/4 (6.4) 250-350 350 7.1 (3.2) 68.7
250-350 400 8.7 (3.9) 69.9
E70163/32 (2.4) 70-100 85 1.6 (0.7) 73.01/8 (3.2) 110-140 100 1.7 (0.8) 63.9
110-140 130 2.3 (1.0) 65.85/32 (4.0) 140-200 140 3.0 (1.4) 70.5
140-200 160 3.2 (1.5) 69.1140-200 190 3.6 (1.6) 66.0
3/16 (4.8) 175-250 175 3.8 (1.7) 71.0175-250 200 4.2 (1.9) 71.0175-250 225 4.4 (2.0) 70.0175-250 250 4.8 (2.2) 65.8
1/4 (6.4) 300-350 250 5.9 (2.7) 74.5300-350 275 6.4 (2.9) 74.1300-350 300 6.8 (3.1) 73.2300-350 350 7.6 (3.4) 71.5
* Note: Efficiencies for coated electrodes do not include stubloss.
GEN-26110_01.p65 7/10/01, 4:00 PM16
1-17
Stub Loss Correction Tablefor Coated Electrodes
2" 3" 4" 5"Deposition (50 mm) (75 mm) (100 mm) (125 mm)Efficiency STUB STUB STUB STUB
12" (300 mm) Electrode60% 50.0% 45.0% 40.0% 35.0%65% 54.2% 48.7% 43.3% 37.9%70% 58.3% 52.5% 46.6% 40.8%75% 62.5% 56.2% 50.0% 43.7%80% 66.6% 60.0% 53.3% 46.6%
14" (350 mm) Electrode60% 51.4% 47.1% 42.8% 38.5%65% 55.7% 51.1% 46.4% 41.8%70% 60.0% 55.0% 50.0% 45.0%75% 64.3% 58.9% 53.6% 48.2%80% 68.5% 62.8% 57.1% 51.4%
18" (450 mm) Electrode60% 53.3% 50.0% 46.6% 43.3%65% 57.7% 54.2% 50.5% 46.9%70% 62.2% 58.3% 54.4% 50.5%75% 66.6% 62.5% 58.3% 54.2%80% 71.1% 66.6% 62.2% 57.7%
Sureweld Coated ElectrodeDeposition Data and CurrentRanges*
Electrode DepositionDiameter Range Optimum Rate lbs./hr. Efficiencyin. (mm) Amperage Amperage (kg/hr) %
E7024/7024-11/8 (3.2) 130-180 140 4.2 (1.9) 71.8
130-180 180 5.1 (2.3) 70.75/32 (4.0) 180-240 180 5.3 (2.4) 71.3
180-240 210 6.3 (2.9) 72.5180-240 240 7.2 (3.3) 69.4
3/16 (4.8) 250-290 245 7.5 (3.4) 69.2250-290 270 8.3 (3.8) 70.5250-290 290 9.1 (4.1) 68.0
7/32 (5.6) 300-340 320 9.4 (4.3) 72.4300-340 360 11.6 (5.3) 69.1
1/4 (6.4) 350-400 400 12.6 (5.7) 71.7
* Note: Efficiencies for coated electrodes do not include stubloss.
GEN-26110_01.p65 7/10/01, 4:00 PM17
1-18
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GEN-26110_01.p65 7/10/01, 4:00 PM18
1-19
ATOM ARC ®
Iron PowderLow Hydrogen Electrodes
The introduction of iron powder into low hydrogenelectrodes greatly increased productivity, making the useof Atom Arc for most welding operations more thancompetitive with common mild steel electrodes in overallcost. The real advantage of course is that by improvingthe efficiency of welding operations, fabricators have ameans of equalizing increasing overhead and labor costs.
Moisture Resistant CoatingAtom Arc electrodes are manufactured with a flux coatingthat effectively resists moisture pick-up for many hoursafter the container is opened. This improved coatingprovides an extra degree of reliability, especially forelectrodes exposed to high temperature, high humidityworking conditions.
Typical % Moisture in Atom Arc Coatings
It should be noted that even though Atom Arc electrodesresist moisture pick-up longer than ever before, nomoisture resistant electrode will eliminate the need forstorage and rebake ovens or the necessity to follow coderequirements for allowable exposure times.The graph above shows the rate of moisture pick-up ofAtom Arc electrodes.
Electrode StorageUnopened containers can be stored safely for an indefi-nite length of time under normal dry storage conditions.They should be protected from humid air after thecontainer is opened by being kept at 225°F to 300°F,(107°C to 149°C) or if the need arises, they can bereconditioned by baking for one hour at 700°F (371°C).
0.5
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GEN-26110_01.p65 7/10/01, 4:00 PM19
1-20
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GEN-26110_01.p65 7/10/01, 4:00 PM20
1-21
Low Hydrogen Covered ElectrodesAtom Arc 7018AWS Class E7018Conforms to E7018H4RAC-DCEP (Electrode Positive)Electrode Imprint Marking: 7018Code and Specification Data:AWS A5.1, ASME SFA 5.1 Det Norske Veritas - 3YHHMilitary - MIL-E-22200/1, Lloyds - 3-3YH MIL 7018 CWB-CSA W48.1, E48018ABS - AWS A5.1, 2Y
Description:Atom Arc 7018 is an iron powder, low hydrogen moistureresistant electrode. The wider operating ranges andsmooth weld metal transfer minimizes post weld clean up.This premium quality electrode meets a multitude ofcodes and welding specifications. Atom Arc 7018 wasdeveloped to weld carbon and low alloy steels, includinga variety of hardenable steels.Typical Mechanical Properties
Stress Relieved8 hrs.
As Welded @1150°F (621°C)Yield Strength, psi (MPa) 68,000 (469) 57,300 (395)Tensile Strength, psi (MPa) 78,000 (538) 70,600 (487)% Elongation in 2" (51 mm) 30 33% Reduction in Area 75.5 77
Typical Charpy V-Notch Impact PropertiesStress Relieved
8 hrs.As Welded @1150°F (621°C)
Testing Temp. ft.-lbs. (J) ft.-lbs. (J)-20°F (-29°C) 168 (228) 193 (262)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S
0.045 1.10 0.40 0.015 0.014
Preheat:Preheat is generally not required with Atom Arc 7018 toprevent underbead cracking. Preheat should be used withhardenable steels to prevent the formation of hard heat-affected zones and eliminate tendencies toward quenchcracking on cooling. Preheat may also be required inwelding heavy sections.Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm),7/32" (5.6 mm), 1/4" (6.4 mm)
Packaged in Hermetically Sealed Containers (HSC)
Recommended Welding Parameters page 1-45
GEN-26110_01.p65 7/10/01, 4:00 PM21
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Atom Arc 7018-1AWS Class E7018-1Conforms to E7018-1H4RAC-DCEP (Electrode Positive)Electrode Imprint Marking: 7018-1Code and Specification Data:AWS A5.1, ASME SFA 5.1 Det Norske Veritas - 3Y(H10)ABS - AWS A5.1, 3-3YHH CWB-CSA W48.1, E48018-1Lloyds - 3-3YH
Description:Atom Arc 7018-1 is an all-position, low hydrogen, ironpowder electrode that displays exceptional impacts at lowtemperatures in both the as welded and stress relievedconditions. It more than meets the AWS minimum of 20ft.-lbs. (27 J) at -50°F (-10°C). The smooth metal transferminimizes spatter and the complete slag coverage isdesigned for easy removal.Atom Arc 7018-1 is intended for a wide variety of carbonand low alloy steels in the 50 ksi (345 MPa) minimumyield. It is ideal for applications that require impacttoughness at low temperatures.Typical Mechanical Properties
Stress Relieved8 hrs.
As Welded @1150°F (621°C)Yield Strength, psi (MPa) 69,000 (476) 57,700 (398)Tensile Strength, psi (MPa) 81,600 (563) 72,700 (501)% Elongation in 2" (51 mm) 30 33% Reduction in Area 72 72
Typical Charpy V-Notch Impact PropertiesStress Relieved
8 hrs.As Welded @1150°F (621°C)
Testing Temp. ft.-lbs. (J) ft-lbs. (J)-50°F (-46°C) 104 (141) 165 (224)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S
0.04 1.35 0.32 0.014 0.015
Preheat:See preheat instructions for Atom Arc 7018.Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm),7/32" (5.6 mm), 1/4" (6.4 mm)Packaged in Hermetically Sealed Containers (HSC)
Low Hydrogen Covered Electrodes
GEN-26110_01.p65 7/10/01, 4:00 PM22
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Atom Arc 7018-ACAWS Class E7018AC-DCEP (Electrode Positive)Electrode Imprint Marking: 7018AC
Code and Specification Data:AWS A5.1, ASME SFA 5.1CWB-CSA 48.1, E48018
Description:Atom Arc 7018AC is a product specifically designed tohave optimum arc characteristics when used with ACpower sources having 75 to 80 open circuit voltage.Compared to standard Atom Arc 7018 operating on AC,this electrode will have easier arc starting and restrike, asmoother arc, and lower spatter. It is useable on a widerange of steels.
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 77,500 (535)Tensile Strength, psi (MPa) 86,000 (593)% Elongation in 2" (51 mm) 29% Reduction in Area 72
Typical Charpy V-Notch Impact PropertiesAs Welded
Testing Temp. ft.-lbs. (J)
-20°F (-29°C) 46 (62)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S
0.047 0.95 0.30 0.014 0.015
Preheat:See preheat instructions for Atom Arc 7018.
Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm)Packaged in Hermetically Sealed Containers (HSC)
Recommended Welding Parameters page 1-45
GEN-26110_01.p65 7/10/01, 4:00 PM23
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Atom Arc 7018-SRAWS Class E7018Conforms to E7018H4RAC-DCEP (Electrode Positive)Electrode Imprint Marking: 7018-SR
Code and Specification Data:AWS A5.1, ASME SFA 5.1
Description:Atom Arc 7018-SR is an all-position, iron powder lowhydrogen electrode. The moisture resistance and welderappeal is similar to other Atom Arc electrodes.Atom Arc 7018-SR was developed to maintain 70 ksi (483MPa) tensile strength after 16 hours stress relieving.
Typical Mechanical PropertiesStress Relieved
8 hrs. 16 hrs.@1150°F @1150°F
As Welded (621°C) (621°C)
Yield Strength, psi (MPa) 68,800 (474) 61,000 (421) 59,100 (407)Tensile Strength, psi (MPa) 83,100 (573) 76,800 (529) 74,100 (511)% Elongation in 2" (51 mm) 32 35 35% Reduction in Area 76 76 77
Typical Charpy V-Notch Impact PropertiesStress Relieved
8 hrs. 16 hrs.@1150°F @1150°F(621°C) (621°C)
Testing Temp As Welded ft-lbs. (J) ft-lbs. (J)
-20°F (-29°C) 114 (195) 133 (180) 185 (250)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Mo
0.06 1.35 0.35 0.014 0.014 0.10
Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm)Packaged in Hermetically Sealed Containers (HSC)
Additional Atom Arc Electrodes listed on page 1-43
Low Hydrogen Covered Electrodes
GEN-26110_01.p65 7/10/01, 4:00 PM24
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Atom Arc 7018-MoAWS Class E7018-A1Conforms to E7018-A1H4RAC-DCEP (Electrode Positive)Electrode Imprint Marking: 7018-A1
Code and Specification Data:AWS A5.5, ASME SFA 5.5ABS - AWS A5.5Military - MIL-E-0022200/7, MIL-7018-A1
Description:Atom Arc 7018-Mo electrodes are recommended forwelding low-alloy, high tensile steels of 50 ksi (345 MPa)minimum yield strength, and also the 0.50% Molybdenumsteels. They are used in the fabrication and erection ofboilers, pressure piping and tubing, and other presssurevessel applications.
Typical Mechanical Properties(Tested according to MIL-E-0022200/7)
Stress Relieved1 hr. 8 hrs.
As Welded @1150°F (621°C)
Yield Strength, psi (MPa) 75,000 (517) 74,300 (512) 73,300 (506)Tensile Strength, psi (MPa) 87,000 (600) 86,100 (594) 84,700 (584)% Elongation in 2" (51 mm) 30 30 30% Reduction in Area 72 72 74
Typical Charpy V-Notch Impact PropertiesStress Relieved
1 hr. 8 hrs.As Welded @1150°F (621°C)
Testing Temp ft-lbs. (J) ft-lbs. (J) ft-lbs. (J)
72°F (22°C) 98 (133) 98 (133) 104 (141)0°F (-18°C) 70 (95) 68 (92) 64 (87)
-20°F (-29°C) 68 (92) 52 (71) 47 (64)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Mo
0.04 0.75 0.42 0.017 0.014 0.53
Preheat:Preheat should be used on hardenable steels to preventthe formation of a hard heat-affected zone. Preheat mayalso be required in welding heavy sections.
Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm),7/32" (5.6 mm), 1/4" (6.4 mm)Packaged in Hermetically Sealed Containers (HSC)Recommended Welding Parameters page 1-45
Carbon-Molybdenum (C-Mo)Electrodes
GEN-26110_01.p65 7/10/01, 4:00 PM25
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Atom Arc 7018-B2LAWS Class E7018-B2LConforms to E7018-B2LH4RAC-DCEP (Electrode Positive)Electrode Imprint Marking: 7018-B2L
Code and Specification Data:AWS A5.5, ASME SFA 5.5
Description:Atom Arc 7018-B2L is a Cr-Mo electrode with an extra lowcarbon analysis. The limited carbon content in the weldmetal is beneficial in reducing cracking in weldments.Atom Arc 7018-B2L is carefully engineered to produce astable arc when welding low alloy steels in the categoriesof 1/2% Cr - 1/2% Mo, 1% Cr - 1/2% Mo,1-1/4% Cr - 1/2% Mo steels. Most grades of these steelsare used in power piping, boiler work, castings andforgings.
Typical Mechanical PropertiesStress Relieved
1hr.@1275°F (691°C)
Yield Strength, psi (MPa) 74,400 (531)Tensile Strength, psi (MPa) 88,200 (609)% Elongation in 2" (51 mm) 29% Reduction of Area 61
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Cr Mo
0.031 0.70 0.43 0.015 0.016 1.22 0.55
Preheat:Preheat should be used on hardenable steels to preventthe formation of a hard heat-affected zone. Preheat mayalso be required in welding heavy sections.
Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm),7/32" (5.6 mm), 1/4" (6.4 mm)Packaged in Hermetically Sealed Containers (HSC)
Additional Atom Arc Electrodes listed on page 1-43
Chromium-Molybdenum(Cr-Mo) Electrodes
GEN-26110_01.p65 7/10/01, 4:00 PM26
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Atom Arc 8018-CMAWS Class E8018-B2Conforms to E8018-B2H4RAC-DCEP (Electrode Positive)Electrode Imprint Marking: 8018-B2
Code and Specification Data:AWS A5.5, ASME SFA 5.5Military - MIL-E-0022200/8, MIL-8018-B2ABS - AWS A5.5
Description:Atom Arc 8018-CM electrodes are used for the welding ofsuch steels as 1/2% Cr - 1/2% Mo, 1% Cr - 1/2% Mo, and1-1/4% Cr - 1/2% Mo, which are used principally in powerpiping and boiler work for the fabrication of plates, pipes,tubes, castings, and forgings.
Typical Mechanical PropertiesStress Relieved
1 hr. 8 hrs.@1275°F (691°C) @1275°F (691°C)
Yield Strength, psi (MPa) 77,400 (534) 71,800 (495)Tensile Strength, psi (MPa) 89,700 (618) 85,800 (592)% Elongation in 2" (51 mm) 26 27% Reduction of Area 70 71
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Cr Mo
0.067 0.64 0.45 0.016 0.014 1.23 0.55
Preheat:Preheat should be used on hardenable steels to preventthe formation of a hard heat-affected zone. Preheat mayalso be required in welding heavy sections.
Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm),7/32" (5.6 mm), 1/4" (6.4 mm)Packaged in Hermetically Sealed Containers (HSC)
Recommended Welding Parameters page 1-45
GEN-26110_01.p65 7/10/01, 4:00 PM27
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Atom Arc 8018-B3LAWS Class E8018-B3LConforms to E8018-B3LH4RAC-DCEP (Electrode Positive)Electrode Imprint Marking: 8018-B3L
Code and Specification Data:AWS A5.5, ASME SFA 5.5
Description:Atom Arc 8018-B3L is a low carbon electrode designedfor welding the nominal 2-1/4% Cr - 1% Mo steels. Arccharacteristics are stable and spatter is minimal. The lowcarbon analysis of the weld metal contributes to its crackresistance, and the careful blend of Cr and Mo providethe properties for weldments subjected to elevatedtemperature service.
Typical Mechanical PropertiesStress Relieved
1 hr.@1275°F (691°C)
Yield Strength, psi (MPa) 78,000 (538)Tensile Strength, psi (MPa) 93,200 (643)% Elongation in 2" (51 mm) 25% Reduction of Area 68
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Cr Mo
0.04 0.69 0.36 0.017 0.015 2.33 1.08
Preheat:Preheat should be used on hardenable steels to preventthe formation of a hard heat-affected zone. Preheat mayalso be required in welding heavy sections.
Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm),7/32" (5.6 mm), 1/4" (6.4 mm)Packaged in Hermetically Sealed Containers (HSC)
Additional Atom Arc Electrodes listed on page 1-43
Chromium-Molybdenum(Cr-Mo) Electrodes
GEN-26110_01.p65 7/10/01, 4:00 PM28
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Atom Arc 8018-B6LAWS Class E8018-B6LConforms to E8018-B6LH4RAC-DCEP (Electrode Positive)Electrode Imprint Marking: 8018-B6L
Code and Specification Data:AWS A5.5, ASME SFA 5.5
Description:Atom Arc 8018-B6L deposits a low carbon 5% Cr1/2% Mo weld metal. It is designed for welding ASTMA200-T5, A335-P5, A387-Gr5 and similar steels. Applica-tions tend to be in the petrochemical and petroleumindustries, especially where resistance to hydrogen attackis required.
Typical Mechanical PropertiesStress Relieved
1 hr.@1375°F (745°C)
Yield Strength, psi (MPa) 95,000 (656)Tensile Strength, psi (MPa) 81,300 (561)% Elongation in 2" (51 mm) 25
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Cr Mo Ni
0.04 0.62 0.63 0.015 0.011 5.43 0.55 0.05
Preheat:The recommended preheat temperature for 5CrMo steelsis 400-500°F depending on thickness. Post weld heattreatment is generally required.
Standard Diameters and Packages3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm),1/4" (6.4 mm)Packaged in Hermetically Sealed Containers (HSC)
Recommended Welding Parameters page 1-45
GEN-26110_01.p65 7/10/01, 4:00 PM29
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Atom Arc 9018-CMAWS Class E9018-B3Conforms to E9018-B3H4RAC-DCEP (Electrode Positive)Electrode Imprint Marking: 9018-B3Code and Specification Data:AWS A5.5, ASME SFA 5.5Military - MIL-E-0022200/8, MIL-9018-B3ABS - AWS A5.5
Description:The principal application of Atom Arc 9018-CM electrodesis welding the nominal 2-1/2% Cr - 1% Mo steels com-monly found on pressure vessels, heat exchangers, andother related components.
Typical Mechanical PropertiesStress Relieved
1 hr. 8 hrs.@1275°F (691°C) @1275°F (691°C)
Yield Strength, psi (MPa) 83,300 (574) 78,600 (542)Tensile Strength, psi (MPa) 99,500 (686) 94,200 (650)% Elongation in 2" (51 mm) 23 23
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Cr Mo
0.07 0.66 0.48 0.019 0.014 2.25 1.05
Preheat:Preheat should be used on hardenable steels to preventthe formation of a hard heat-affected zone. Preheat mayalso be required in welding heavy sections.
Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm),7/32" (5.6 mm), 1/4" (6.4 mm)Packaged in Hermetically Sealed Containers (HSC)
Additional Atom Arc Electrodes listed on page 1-43
Chromium-Molybdenum(Cr-Mo) Electrodes
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Atom Arc 9018-B9AWS Class E9018-B9Conforms to E9018-B9H4RAC-DCEP (Electrode Positive)Electrode Imprint Marking: 9018-B9
Code and Specification Data:AWS A5.5, ASME SFA 5.5
Description:Atom Arc 9018-B9 is designed to weld the modified 9% Cr- 1% Mo steels known by the designations T91, P91 orGrade 91. These steels are designed to provideimproved creep strength, toughness, and fatigue, andoxidation and corrosion resistance at elevatedtemperatures.
Typical Mechanical PropertiesStress Relieved
1 hr.@1375°F (746°C)
Yield Strength, psi (MPa) 104,400 (470)Tensile Strength, psi (MPa) 120,200 (637)% Elongation in 2" (51 mm) 18
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Cr Ni Mo Cu
0.1 1.0 0.2 0.01 0.01 9.0 0.2 1.0 0.1
Preheat:The recommended preheat temperature for 9CrMo steelsis 450-550°F depending on thickness. Post weld heattreatment is generally required.
Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm),7/32" (5.6 mm), 1/4" (6.4 mm)Packaged in Hermetically Sealed Containers (HSC)
Recommended Welding Parameters page 1-45
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Atom Arc 8018-SRAWS Class E8018-GConforms to E8018-GH4RAC-DCEP (Electrode Positive)Electrode Imprint Marking: 8018-SR
Code and Specification Data:AWS A5.5, ASME SFA 5.5
Description:Atom Arc 8018-SR is an all-position, iron powder lowhydrogen electrode. The moisture resistance and welderappeal is similar to other Atom Arc electrodes.Atom Arc 8018-SR was developed to maintain 80 ksi(552 MPa) after 50 hours stress relieved.
Typical Mechanical Properties Stress Relieved*
8 hrs. 20 hrs. 50 hrs.@ 1150°F @1150°F @1150°F(621°C) (621°C) (621°C)
Yield Strength, psi (MPa) 71,000 (490) 72,000 (493) 68,500 (470)Tensile Strength, psi (MPa) 85,000 (587) 84,500 (579) 82,000 (562)% Elongation in 2" (51 mm) 29 30 32% Reduction in Area 75 76 76
Typical Charpy V-Notch Impact Properties Stress Relieved*
8 hrs. 20 hrs. 50 hrs.@ 1150°F @1150°F @1150°F(621°C) (621°C) (621°C)
Testing Temp. ft.-lbs. (J) ft.-lbs. (J) ft.-lbs. (J)
60°F (16°C) 160 (217) 172 (233) 165 (224)-50°F (-46°C) 108 (146) 106 (144) 114 (155)
*Stress Relieved plates welded at 450°F interpass
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Ni Mo
0.08 1.05 0.30 0.014 0.007 0.98 0.26
Preheat:Preheat should be used on hardenable steels to preventthe formation of a hard heat-affected zone. Preheat mayalso be required in welding heavy sections.
Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm)Packaged in Hermetically Sealed Containers (HSC)Recommended Welding Parameters page 1-45
Nickel (Ni) Steel Electrodes
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Atom Arc 8018AWS Class E8018-C3Conforms to E8018-C3H4RAC-DCEP (Electrode Positive)Electrode Imprint Marking: 8018-C3
Code and Specification Data:AWS A5.5, ASME SFA 5.5Military - MIL-E-0022200/1, MIL-8018-C3ABS - AWS A5.5, 3YLloyds - 3-3YH
Description:Atom Arc 8018 electrodes deposit 1% Ni weld metal.They are used primarily to weld high-tensile steels in the70-80 ksi (483-552 MPa) tensile strength range, espe-cially where notch toughness at temperatures as lowas -40°F (-40°C) is required.
Typical Mechanical PropertiesStress Relieved
8 hrs.As Welded @1150°F (621°C)
Yield Strength, psi (MPa) 74,000 (513) 70,000 (483)Tensile Strength, psi (MPa) 85,300 (589) 81,400 (562)% Elongation in 2" (51 mm) 30 30
Typical Charpy V-Notch Impact PropertiesStress Relieved
8 hrs.As Welded @1150°F (621°C)
Testing Temp. ft.-lbs. (J) ft.-lbs. (J)
-20°F (-29°C) 124 (168) 129 (175)-40°F (-40°C) 114 (155) 115 (156)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Ni
0.05 1.10 0.30 0.017 0.014 0.95
Preheat:Preheat should be used on hardenable steels to preventthe formation of a hard heat-affected zone. Preheat mayalso be required in welding heavy sections.
Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm),7/32" (5.6 mm), 1/4" (6.4 mm)Packaged in Hermetically Sealed Containers (HSC)Additional Atom Arc Electrodes listed on page 1-43
Nickel (Ni) Steel Electrodes
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Atom Arc 8018-C1AWS Class E8018-C1Conforms to E8018-C1H4RAC-DCEP (Electrode Positive)Electrode Imprint Marking: 8018-C1
Code and Specification Data:AWS A5.5, ASME SFA 5.5ABS - AWS A5.5, 3YLloyds - 3-3YH
Description:Atom Arc 8018-C1 electrodes deposit weld metal whichcontains nominal 2-1/3% Ni. Their principal use is in thewelding of nickel-bearing steels for low temperatureapplications where toughness of the weld metal atlow temperature is important.
Typical Mechanical PropertiesStress Relieved
1 hr.As Welded @1150°F (621°C)
Yield Strength, psi (MPa) 80,500 (550) 75,200 (519)Tensile Strength, psi (MPa) 90,300 (623) 86,000 (593)% Elongation in 2" (51 mm) 30 30% Reduction of Area 73 74
Typical Charpy V-Notch Impact PropertiesStress Relieved
1 hr.As Welded @1150°F (621°C)
Testing Temp. ft.-lbs. (J) ft.-lbs. (J)-75°F (-59°C) 47 (64) 64 (87)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Ni
0.04 1.10 0.30 0.016 0.015 2.58
Preheat:Preheat should be used on hardenable steels to preventthe formation of a hard heat-affected zone. Preheat mayalso be required in welding heavy sections.
Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm),7/32" (5.6 mm), 1/4" (6.4 mm)Packaged in Hermetically Sealed Containers (HSC)
Recommended Welding Parameters pg. 1-45
Nickel (Ni) Steel Electrodes
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High Strength ElectrodesAtom Arc 9018SRAWS Class E9018-GConforms to E9018-GH4RAC-DCEP (Electrode Positive)Electrode Imprint Marking: 9018-G
Code and Specification Data:AWS A5.5-96, ASME SFA 5.5
Description:Atom Arc 9018SR is an all-position, low hydrogen ironpowder electrode with outstanding moisture resistanceand welder appeal. The "G" classification of 9018SR isthe result of higher Mn and Mo levels and a maximum Niof 1.1%.
Typical Mechanical Properties(@450° Interpass Temp.) Stress Relieved
20 hrs.@1150°F (621°C)
Yield Strength, psi (MPa) 87,100 (601)Tensile Strength, psi (MPa) 99,100 (684)% Elongation in 2" (51 mm) 24% Reduction of Area 68
Typical Charpy V-Notch Impact PropertiesStress Relieved
20 hrs.@1150°F (621°C)
Testing Temp. ft.-lbs. (J)
60°F (16°C) 91 (123)-50°F (-46°C) 36 (49)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Cr Ni Mo V Cu
0.09 1.60 0.30 0.016 0.009 0.03 1.05 0.45 0.01 0.01
Preheat:Preheat should be used on hardenable steels to preventthe formation of a hard heat-affected zone. Preheat mayalso be required in welding heavy sections.
Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm)Packaged in Hermetically Sealed Containers (HSC)
Additional Atom Arc Electrodes listed on page 1-43
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High Strength ElectrodesctrodesAtom Arc 9018AWS Class E9018-MConforms to E9018-MH4RAC-DCEP (Electrode Positive)Electrode Imprint Marking: 9018-M
Code and Specification Data:AWS A5.5, ASME SFA 5.5Military - MIL-E-0022200/1, MIL-9018-MABS - 3YLloyds - 3YH
Description:Atom Arc 9018 electrodes are used for attachment weldson T1, HY-80 and HY-90 steels, and other high-tensile,quenched and tempered steels.
Typical Mechanical PropertiesStress Relieved
24 hrs.As Welded @1100°F (593°C)
Yield Strength, psi (MPa) 83,900 (579) 68,100 (470)Tensile Strength, psi (MPa) 94,800 (654) 92,300 (637)% Elongation in 2" (51 mm) 28 27% Reduction of Area 69 72
Typical Charpy V-Notch Impact PropertiesStress Relieved
24 hrs.As Welded @1100°F (593°C)
Testing Temp. ft.-lbs. (J) ft.-lbs. (J)
-60°F (-51°C) 60 (81) 66 (92)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Ni Mo
0.05 1.10 0.31 0.017 0.014 1.61 0.28
Preheat:Preheat should be used on hardenable steels to preventthe formation of a hard heat-affected zone. Preheat mayalso be required in welding heavy sections.
Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm),7/32" (5.6 mm), 1/4" (6.4 mm)Packaged in Hermetically Sealed Containers (HSC)
Recommended Welding Parameters page 1-45
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Atom Arc 10018AWS Class E10018-MConforms to E10018-MH4RAC-DCEP (Electrode Positive)Electrode Imprint Marking: 10018-M
Code and Specification Data:AWS A5.5, ASME SFA 5.5
Description:Atom Arc 10018 electrodes are used primarily forapplications which require weld joints of at least 100 ksi(690 MPa) tensile strength, good ductility and crackresistance. Good notch toughness at temperartures aslow as -60°F (-51°C) is possible with this electrode. AtomArc 10018 can be used to weld HY-80 and T-1 steel.
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 99,000 (683)Tensile Strength, psi (MPa) 108,000 (745)% Elongation in 2" (51 mm) 24% Reduction of Area 64
Typical Charpy V-Notch Impact PropertiesAs Welded
Testing Temp. ft.-lbs. (J)
-40°F (-40°C) 46 (62)-60°F (-51°C) 28 (38)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Ni Mo
0.05 1.50 0.28 0.014 0.014 1.70 0.30
Preheat:Preheat should be used on hardenable steels to preventthe formation of a hard heat-affected zone. Preheat mayalso be required in welding heavy sections.
Standard Diameters1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm), 7/32" (5.6 mm),1/4" (6.4 mm)Packaged in Hermetically Sealed Containers (HSC)
Additional Atom Arc Electrodes listed on page 1-43
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High Strength ElectrodesrAtom Arc TAWS Class E11018-MConforms to E11018-MH4RAC-DCEP (Electrode Positive)Electrode Imprint Marking: 11018-MCode and Specification Data:AWS A5.1, ASME SFA 5.1 ABS - AWS A5.5Military - MIL-E-0022200/1, MIL-11018-MDescription:Atom Arc T was developed for welding T-1 steel in all applica-tions. Mechanical properties of the welded joints equal orexceed the properties of the base steel in either the as weldedor stress relieved condition, thus giving 100% design jointefficiency. In addition, Atom Arc “T” electrodes are suitable formany other applications, particularly where high-strength weldswith excellent low temperature impact properties are required.Typical Mechanical Properties
Stress Relieved1 hr.
As Welded @1025°F (552°C)Yield Strength, psi (MPa) 104,800 (723) 102,400 (707)Tensile Strength, psi (MPa) 115,000 (793) 112,000 (773)% Elongation in 2" (51 mm) 23 23% Reduction in Area 62 63
Typical Charpy V-Notch Impact PropertiesStress Relieved
1 hr.As Welded @1025°F (552°C)
Testing Temp. ft.-lbs. (J) ft.-lbs. (J)0°F (-18°C) 55 (75) 50 (68)
-40°F (-40°C) 48 (65) 42 (57)-60°F (-51°C) 44 (60) 25 (34)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Cr Ni Mo
0.05 1.50 0.30 0.018 0.015 0.30 1.75 0.30
Preheat:The manufacturers of the trade name steels publish preheatrequirements for the various thicknesses in which the steels aresupplied. Under conditions of extreme cold, it is alwaysadvisable to warm the base metal to about 60°F (16°C) in theimmediate area of the joint before welding. When extremeductility of the weld area is required with high-tensile steels orwhen welding heavy sections, the use of low temperaturepreheat is recommended. When Atom Arc T is used to weldother steels, the requirements for preheat are controlled by thehardening characteristics and thickness of the material beingwelded.Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm),7/32" (5.6 mm), 1/4" (6.4 mm)Packaged in Hermetically Sealed Containers (HSC)
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odesAtom Arc 12018AWS Class E12018-MConforms to E12018-MH4RAC-DCEP (Electrode Positive)Electrode Imprint Marking: 12018-M
Code and Specification Data:AWS A5.5, ASME SFA 5.5
Description:Atom Arc 12018 is recommended for use in fabrication oflow-alloy, high-tensile steels where welds of 120 ksi (828MPa) minimum tensile strength are required. Atom Arc12018 is typically used to weld forgings, castings, plateand pressure vessels.
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 120,500 (831)Tensile Strength, psi (MPa) 133,400 (920)% Elongation in 2" (51 mm) 18% Reduction of Area 56
Typical Charpy V-Notch Impact PropertiesAs Welded
Testing Temp. ft.-lbs. (J)
-60°F (-51°C) 26 (35)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Cr Ni Mo
0.06 1.65 0.34 0.019 0.016 0.85 2.00 0.45
Preheat:Preheat should be used on hardenable steels to preventthe formation of a hard heat-affected zone. Preheat mayalso be required in welding heavy sections.
Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm),7/32" (5.6 mm), 1/4" (6.4 mm)Packaged in Hermetically Sealed Containers (HSC)
Recommended Welding Parameters page 1-45
Additional Atom Arc Electrodes listed on page 1-43
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Special Purpose ElectrodeAtom Arc 8018-WAWS Class E8018-W2Conforms to E8018-W2H4RAC-DCEP (Electrode Positive)Electrode Imprint Marking: 8018-W
Code and Specification Data:AWS A5.5, ASME SFA 5.5CWB-CSA W48.3, E55018-W
Description:Atom Arc 8018-W electrodes are designed specifically forwelding the low-alloy, high-strength “weathering” steels,such as ASTM A588, A242, Cor-Ten, and Mayari R®. Theuniform color blend of weld deposit with “weathered” steelmakes these electrodes an excellent choice whenarchitectural appearance is important.
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 83,400 (575)Tensile Strength, psi (MPa) 92,900 (641)% Elongation in 2" (51 mm) 27
Typical Charpy V-Notch Impact PropertiesAs Welded
Testing Temp. ft.-lbs. (J)
0°F (-18°C) 90 (122)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Cr Ni Cu
0.04 1.00 0.43 0.016 0.014 0.50 0.60 0.55
Preheat:Preheat should be used on hardenable steels to preventthe formation of a hard heat-affected zone. Preheat mayalso be required in welding heavy sections.
Standard Diameters1/8" (3.2 mm), 5/32" (4.0 mm)Packaged in Hermetically Sealed Containers (HSC)
Recommended Welding Parameters page 1-45
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Heat Treatable ElectrodesThese heat-treatable electrodes are named after thetypes of steel they are designed to weld. While the weldmetal composition does not necessarily match that of thesteel, the carbon content is close and thus the tensilestrength matches that of the steel throughout the fulltempering temperature range. The iron powder in thecoating permits the use of higher welding currents whichincreases the deposition rate, eliminates starting porosity,and greatly increases operator efficiency. Each electrodehas a smooth arc action with practically no spatter anddeposits a smooth uniform weld bead.
Atom Arc 4130No AWS ClassAC-DCEP (Electrode Positive)Electrode Imprint Marking: 4130
Description:Atom Arc 4130 is an all-position, iron powder, lowhydrogen electrode developed to weld heat-treatable,low-alloy steels such as SAE 4130 and 8630, as well assteel castings with comparable hardening characteristics.
Typical Mechanical PropertiesOil Quenched Oil Quenched
@1600°F (871°C) @1600°F (871°C)Tempered Tempered
@1150°F (621°C) @950°F (510°C)
Yield Strength, psi (MPa) 121,000 (834) 152,000(1048)Tensile Strength, psi (MPa) 138,000 (951) 163,000(1124)% Elongation in 2" (51 mm) 18 16% Reduction of Area 32 36
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Cr Ni Mo
0.20 1.25 0.40 0.013 0.015 0.50 1.30 0.20
Preheat:When heat treatable steels are welded with any ferriticelectrode, including Atom Arc 4130, it is necessary thatthe weldments be preheated to 400-600°F (204-316°C),with the same temperature held at interpass, in order toprevent cracking.
Standard Diameters3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm),1/4" (6.5 mm)Packaged in Hermetically Sealed Containers (HSC)
Additional Atom Arc Electrodes listed on page 1-43
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Heat Treatable ElectrodesAtom Arc 4130-LNNo AWS ClassAC-DCEP (Electrode Positive)Electrode Imprint Marking: 4130LN
Description:Atom Arc 4130-LN is an all-position iron powder, lowhydrogen electrode with a specially formulated weld metalanalysis to match heat treating properties of AISI 4130,8630 and the like. Properties are achieved with a nominalnickel analysis of less than 1%, thereby complying withN.A.C.E. MR 01-75 for use on oil field equipment in sour(H2S) gas and oil environment.Atom Arc 4130-LN incorporates the standard Atom Arcflux formula, thus assuring excellent usability andoperating characteristics.
Typical Mechanical PropertiesOil
QuenchedFrom:
1600°FWater (871°C)Quenched 1600°F 1625°F 1600°F 1600°F 1 hr.From: (871°C) (885°C) (871°C) (871°C) Tempered1 hr. 1200°F 1100°F 1000°F 900°F @ 1000°FTempered @ (649°C) (593°C) (537°C) (482°C) (537°C)
Yield Strength, 109,000 131,400 141,500 151,500 110,500 psi (MPa) (751) (906) (976) (1045) (762)Tensile Strength, 125,000 144,400 155,500 167,000 135,000 psi (MPa) (862) (996) (1072) (1151) (931)% Elongation 21 15.5 16 14 17 in 2" (51 mm)% Reduction 58.6 52.0 49.5 44.6 47.8 of Area
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Cr Ni Mo
0.26 1.25 0.47 0.014 0.014 0.49 0.80 0.16
Preheat:The heat treatable steels welded with Atom Arc 4130-LNmust be preheated within a 400-600°F (204-316°C)range. To prevent hardening of the heat affected zone, asimilar interpass temperature must be maintained.
Standard Diameters1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm)Packaged in Hermetically Sealed Containers (HSC)
Recommended Welding Parameters page 1-45
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Additional Atom Arc Electrodes*
Atom Arc 7018-M (E7018M)Atom Arc 8018-N (E8018-C2)Atom Arc 10018-M1 (No AWS Class)Atom Arc 10018-MM (E10018-D2)Atom Arc 12018-M2 (No AWS Class)Atom Arc 8018-NM (E8018-NM1)Atom Arc 4140 (No AWS Class)Atom Arc 4340 (No AWS Class)
* Note: For technical information contact the MarketingDepartment
NOTES
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Electrode DimensionConversion Chart
Diameter LengthInches mm Inches mm
5/64 2.0 12 3003/32 2.4 12 3001/8 3.2 14 350
5/32 4.0 14 3503/16 4.8 14 3507/32 5.6 18 4501/4 6.4 18 450
5/16 8.0 18 450
ATOM ARC ®
Iron PowderLow Hydrogen Electrodes
Welding Procedure:Experienced welders find Atom Arc electrodes surpris-ingly easy to use compared to conventional low hydrogenelectrodes and quite different from ordinary mild steelelectrodes. The following steps should be taken to obtainmaximum performance from these electrodes.Proper Current — Set the power source for the properamperage on either DCEP (Electrode Positive) oralternating current.Starting Technique — Strike electrode ahead of theusual starting point and back step to the previous bead.Reduce arc length to proper height and proceed.Do Not Use a Whipping Technique — This should notbe used with a 7018 electrode. Use a straightforwardprogression in all positions. Weaving may be used aslong as a short arc length is maintained.Diameters 3/32" (2.4mm), 1/8" (3.2mm), 5/32" (4.0mm)are all position electrodes, 3/16" (4.8mm), 7/32" (5.6mm),1/4" (6.4mm) diameter electrodes are recommended forflat or horizontal fillet work only.
ATOM ARC ElectrodesPer Pound (kg)
Diam. in. 3/32 1/8 5/32 3/16 7/32 1/4(mm) (2.4) (3.2) (4.0) (4.8) (5.6) (6.4)
Length in. 14 14 14 14 18 18(mm) (350) (350) (350) (350) (450) (450)
Pieces / lb. 21.0 13.0 9.2 6.6 3.8 2.9(kg) (46.3) (28.7) (20.3) (14.5) (8.4) (6.4)
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Stub Loss Correction Tablefor Coated Electrodes
2" 3" 4" 5"Deposition (50 mm) (75 mm) (100 mm) (125 mm)Efficiency STUB STUB STUB STUB
12" (300 mm) Electrode60% 50.0% 45.0% 40.0% 35.0%65% 54.2% 48.7% 43.3% 37.9%70% 58.3% 52.5% 46.6% 40.8%75% 62.5% 56.2% 50.0% 43.7%80% 66.6% 60.0% 53.3% 46.6%
14" (350 mm) Electrode60% 51.4% 47.1% 42.8% 38.5%65% 55.7% 51.1% 46.4% 41.8%70% 60.0% 55.0% 50.0% 45.0%75% 64.3% 58.9% 53.6% 48.2%80% 68.5% 62.8% 57.1% 51.4%
18" (450 mm) Electrode60% 53.3% 50.0% 46.6% 43.3%65% 57.7% 54.2% 50.5% 46.9%70% 62.2% 58.3% 54.4% 50.5%75% 66.6% 62.5% 58.3% 54.2%80% 71.1% 66.6% 62.2% 57.7%
Atom Arc Coated ElectrodesDeposition Data and CurrentRanges*
Electrode DepositionDiameter Range Optimum Rate lbs./hr. Efficiencyin. (mm) Amperage Amperage (kg/hr) %
E7018, E8018, etc...3/32 (2.4) 70-100 90 1.7 (0.8) 66.31/8 (3.2) 90-160 120 2.6 (1.2) 71.6
90-160 140 2.7 (1.2) 70.95/32 (4.0) 130-220 140 3.1 (1.4) 75.0
130-220 170 3.8 (1.7) 73.53/16 (4.8) 200-300 200 4.9 (2.2) 76.4
200-300 250 5.4 (2.4) 74.67/32 (5.6) 250-350 250 6.5 (2.9) 75.0
250-350 300 7.2 (3.3) 74.01/4 (6.4) 300-400 300 7.7 (3.5) 78.0
300-400 350 8.7 (3.9) 77.0*Note: Efficiencies for coated electrodes do not include stubloss.
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NOTES
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STAINLESS STEEL PRODUCTSSection 2
DESCRIPTION PAGE
Arcaloy Stainless Steel Electrode Coatings ........ 2-2Arcaloy Stainless Steel Covered Electrodes ......... 2-3Stainless Steel Specialty Alloys ............................. 2-8Nickel Steel Alloy Covered Electrodes .................. 2-9
Additional Arcaloy Covered Electrodes ........ 2-10Additional Nickel Steel Alloy Electrodes ...... 2-10
Current RangesCovered Stainless Steel Electrodes ............. 2-11
Current RangesCovered Nickel Alloy Electrodes .................. 2-12
Deposition Rates and EfficienciesAC/DC and Lime Electrodes ......................... 2-13
Stub Loss Correction Table forCoated Electrodes ........................................ 2-13
Arcaloy Stainless Bare Wires (Description) ...... 2-14Stainless Steel Bare Wires .................................. 2-15
Additional Stainless Bare Wires ................... 2-17Deposition Data Arcaloy Bare Wire .............. 2-18
Arcaloy Stainless Steel Metal Core Wires .......... 2-19Stainless Steel Metal Core Wire .......................... 2-20Additional Arcaloy "MC" Wires ............................. 2-22
Arcaloy Metal Core Wire SuggestedWelding Parameters ..................................... 2-23
Nickel-Arc & NicoreCast Iron Covered Electrodes & Wire ................ 2-24
Suggested Welding Parameters .......................... 2-25Shield-Bright and Shield-Bright X-tra Gas ShieldedFlux Cored Stainless Wires (Description) .......... 2-26
Shield-Bright Stainless Steel Cored Wires .......... 2-27Shield-Bright Welding Parameters ............... 2-31
Shield-Bright X-tra Stainless Steel Cored Wires . 2-32Shield-Bright X-tra Welding Parameters ...... 2-33
Core-Bright Self ShieldedCored Wires (Description) .................................. 2-34
Core-Bright Stainless Steel Cored Wires ............ 2-35Additional Stainless Steel Cored Wires ........ 2-36Core-Bright Welding Parameters .................. 2-37
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2-2
ARCALOY ® Stainless SteelCovered Electrode Coatings
Coating Types...Factors such as coating type and corewire analysis can affect the corrosion resistance andmechanical properties of the weld metals as well as theequipment that must be used, position of welding,radiographic standards, bead shape required and thetotal economics of making the joint. Each of the threecoating types has its own area of application.Lime...coatings, also known as lime fluorspar or basic,are generally associated with the suffix -15 designation.They give the cleanest weld metal, which is usually thelowest oxygen and inclusions and are more resistant tomoisture and porosity. The weld metal tends to betougher, more ductile, more crack resistant and havehigher corrosion resistance. They also have good all-position characteristics and are often chosen for sitework. They are normally usable only with direct currentand should be the choice of the most demanding applica-tions.AC-DC...coatings can be used with alternating or directcurrent and have the suffix -16. The major component isrutile, also known an titania, with some limestone which iswhy the coating type is sometimes referred to as basic-rutile.These AC-DC electrodes are the most popular type, andhave the following characteristics: excellent startingproperties are obtained with all types of AC welding equip-ment. The arc is stable, smooth, with fine spray weld metaltransfer and the bead is uniform, flat or slightly concave withstraight-line feathered edges. Penetration is complete andthe weld metal is free from porosity. Slag is easily andcompletely removed without secondary film which meansless cleaning, grinding and polishing time. Arcaloy AC-DCelectrodes give good out-of-position characteristics. Themechanical properties of AC-DC weld metals are similar toweld metal from lime coated electrodes except it can bestronger with good ductility.Plus...coatings are also titania based, but in addition,contain a high proportion of silicates and other acid compo-nents. These electrodes are very easy to use on AC as wellas DC and have the suffix -17. Arcaloy Plus coated elec-trodes were developed for application where the weld beadmust be smooth and blend into the base metal to minimizegrinding where a crevice can cause corrosion. The weldbead is concave and has minimal ripple. These Arcaloy Pluselectrodes give a smooth spray transfer and produce verylow levels of spatter. The acid slag tends to give the lowestcarbon levels and higher silicon levels. This can be ideal forcorrosion resistance, but for critical mechanical applications,the use of a lime or even an AC-DC coating is preferred.
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Arcaloy 308LAWS A5.4 Tensile Strength Carbon 0.03ASME SFA 5.4 85,000 to 95,000 psi Manganese 1.6Class (586 to 655 MPa) Silicon 0.4E308/308L-15 & -16 % Elongation in 2" (51 mm) Chromium 19.6MIL-E-22200/2, 40 to 50 Nickel 9.7MIL-308L-15 & -16CWB-E308L-16 FN 8Arcaloy 308L was developed for welding 304L. This electrode deposits amaximum of .04% carbon in the weld metal. Weld deposit analyses aremade on every lot of Type 308L to insure that this rigid specificationis maintained. Type 308L is used extensively for welding of chemical plantequipment, and may be used successfully for welding types 304, 321 and347 steels, providing service temperature is less than 500°F (260°C).Arcaloy 308L minimizes the formation of chromium carbides in the weldmetal.
Arcaloy 308L PlusAWS A5.4 Tensile Strength Carbon 0.02ASME SFA 5.4 83,700 psi Manganese 0.7Class E308/308L-17 (577 MPa) Silicon 0.8
% Elongation in 2" (51 mm) Chromium 19.552 Nickel 10.0
FN 8Arcaloy 308L Plus electrodes have a heavy coating, produce a concavebead with minimum ripple and the slag is virtually self-cleaning. For weldingtypes 304, 304L, 308 and 308L when bead appearance is important. Theexcellent wetting action and very fine ripple minimize crevice corrosion andgrinding time. The low carbon content helps to prevent carbide precipita-tion.
Arcaloy 308/308HAWS A5.4 Tensile Strength Carbon 0.04-0.08ASME SFA 5.4 80,000 to 90,000 psi Manganese 1.7Class (552 to 621 MPa) Silicon 0.5E308/308H-15 & -16 % Elongation in 2" (51 mm) Chromium 19.8ABS-E308/308H-16 40 to 50 Nickel 9.6
FN 5
Arcaloy 308/308H can be used in all the applications specified for 308. Inaddition, it can be used to weld type 304H and similar applications whereimproved creep strength is required. Carbon content 0.04% minimum.
Recommended Welding Parameters page 2-11
Additional Arcaloy Electrodes listed on page 2-10
Stainless Steel Covered ElectrodesTypical Mechanical Typical Undiluted
Type Properties Weld Metal AnalysisSpecifications As Welded % wt
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2-4
Stainless Steel Covered ElectrodesTypical Mechanical Typical Undiluted
Type Properties Weld Metal AnalysisSpecifications As Welded % wt
Arcaloy 309LAWS A5.4 Tensile Strength Carbon 0.03ASME SFA 5.4 80,000 to 90,000 psi Manganese 1.8Class (552 to 621 MPa) Silicon 0.5E309/309L-15 & -16 % Elongation in 2" (51 mm) Chromium 23.5CWB-E309L-16 35 to 45 Nickel 13.3
FN 9Arcaloy 309L is used in the overlay of steel where intergranular corrosionmust be kept to a minimum. It is also used for welding mild or carbon steelto stainless steel provided the service temperature is less than 750°F(400°C).
Arcaloy 309L PlusAWS A5.4 Tensile Strength Carbon 0.02ASME SFA 5.4 85,000 psi Manganese 0.7Class E309/309L-17 (586 MPa) Silicon 0.8
% Elongation in 2" (51 mm) Chromium 23.537 Nickel 12.5
FN 15Arcaloy 309L Plus electrodes have a heavy coating and produce a concavebead with minimal ripple. The slag is virtually self-cleaning. For weldingcarbon steel to stainless steel for service below 600°F and for the first layerwhen cladding.
Arcaloy 309/309HAWS A5.4 Tensile Strength Carbon 0.04-0.08ASME SFA 5.4 85,000 to 95,000 psi Manganese 1.7Class E309-15 & -16 (586 to 655 MPa) Silicon 0.6MIL-E-22200/2, % Elongation in 2" (51 mm) Chromium 23.5MIL-309-15 & -16 35 to 45 Nickel 13.0ABS-309-16
FN 6Arcaloy 309/309H is used for welding type 309 base metal for all servicetemperatures designed for 309. Carbon content 0.04% minimum.
Arcaloy 309MoLAWS A5.4 Tensile Strength Carbon 0.03ASME SFA 5.4 85,000 to 95,000 psi Manganese 1.7Class E309Mo/ (586 to 655 MPa) Silicon 0.7E309MoL-15 & -16 % Elongation in 2" (51 mm) Chromium 23.0
35 to 45 Nickel 13.0Molybdenum 2.5FN 20
Arcaloy 309MoL is designed for applications requiring molybdenum with astandard 309L analysis. It is used primarily for welding type 316L and 316clad steels, or welding molybdenum-containing austenitic stainless steel —to carbon steel, provided the service temperature is less than 600°F(316°C). Carbon content 0.04% maximum.
Recommended Welding Parameters page 2-11
Additional Arcaloy Electrodes listed on page 2-10
GEN-26110_02.p65 7/10/01, 4:01 PM4
2-5
Stainless Steel Covered ElectrodesTypical Mechanical Typical Undiluted
Type Properties Weld Metal AnalysisSpecifications As Welded % wt
Arcaloy 310AWS A5.4 Tensile Strength Carbon 0.15ASME SFA 5.4 85,000 to 95,000 psi Manganese 1.8Class E310-15 & -16 (586 to 655 MPa) Silicon 0.4MIL-E-22200/2, % Elongation in 2" (51 mm) Chromium 26.0MIL-310-15 & -16 35 to 45 Nickel 21.0
FN 0
Arcaloy 310 electrodes were developed for the welding of type 310stainless steel. Arcaloy 310 weld deposit exhibits the same chemicalanalysis and oxidation resistance as the base plate metal. It is consideredstandard practice to weld types 410, 430, and 502 with Arcaloy 310 or 309where field welding is done and where it is not possible to preheat oranneal after welding.
Arcaloy 312AWS A5.4 Tensile Strength Carbon 0.12ASME SFA 5.4 110,000 to 120,000 psi Manganese 1.7Class E312-15 & -16 (759 to 828 MPa) Silicon 0.5MIL-E-22200/2, Yield Strength Chromium 29.0MIL-312-15 & -16 80,000 to 90,000 psi Nickel 9.5
(552 to 621 MPa)% Elongation in 2" (51 mm)22 to 25 FN 50
Arcaloy 312 electrodes were originally designed for welding high tensilealloys to high temperature heat-resistant alloys on turbo-jet engines.However, based upon performance, these electrodes have found wideacceptance for the welding of newly developed high yield steels andabrasion resistant and dissimilar steels. The high strength of the“all weld metal” deposit is usually reduced by dilution with the dissimilarbase metal. Service temperature should be less than 750°F (400°C)
Arcaloy 316/316HAWS A5.4 Tensile Strength Carbon 0.04-0.08ASME SFA 5.4 85,000 to 95,000 psi Manganese 1.6Class (586 to 655 MPa) Silicon 0.4E316/316H-15 & -16 % Elongation in 2" (51 mm) Chromium 14.0MIL-E-22200/2, 35 to 45 Nickel 12.0MIL-316-15 & -16 Molybdenum 2.2ABS-316/316H-16 FN 4Arcaloy 316/316H can be used in applications where 316 stainless needsimproved creep strength. Carbon content 0.04% minimum.
Arcaloy 316L PlusAWS A5.4 Tensile Strength Carbon 0.02ASME SFA 5.4 77,500 psi (534 MPa) Manganese 0.7Class E316/316L-17 % Elongation in 2" (51 mm) Silicon 0.6
45 Chromium 18.0Nickel 12.0Molybdenum 2.7FN 7
Arcaloy 316L Plus electrodes have a heavy coating and produce a concavebead with minimal ripple. The slag is virtually self-cleaning. Molybdenumincreases the resistance to pitting corrosion caused by corrosive mediasuch as sulfuric and sulfurous acids, sulphites, chlorides and cellulosesolutions. For welding 316 & 316L stainless when bead appearance isimportant.
GEN-26110_02.p65 7/10/01, 4:01 PM5
2-6
Arcaloy 316LF5AWS A5.4 Tensile Strength Carbon 0.03ASME SFA 5.4 80,000 to 90,000 psi Manganese 1.6Class (552 to 621 MPa) Silicon 0.5E316/316L-15 & -16 % Elongation in 2" (51 mm) Chromium 19.0MIL-E-22200/2, 35 to 45 Nickel 12.2MIL-316L-15 & -16 Molybdenum 2.2CWB-E316L-16
FN 5 min.Arcaloy 316L F5 is similar to Arcaloy 316L except the composition isbalanced to give a weld deposit with a minimum ferrite number of 5.
Cryoarc 316LAWS A5.4 Tensile Strength Carbon 0.03ASME SFA 5.4 85,000 to 95,000 psi Manganese 2.0Class E316L-15 (586 to 655 MPa) Silicon 0.5
% Elongation in 2" (51 mm) Chromium 18.035 to 45 Nickel 13.3
Molybdenum 2.2Impact toughness Nitrogen 0.05@-320°F (-196°C)35 ft.-lbs. (47J)32 mils (0.8 mm) L.E. FN 0.5 (2.0 max.)Magnetic Permeability 1.10 µ
Cryoarc 316L electrodes are designed to be used in cryogenic applicationswhere impact toughness is required. Cryoarc electrodes can also be usedwhere low magnetic permeability is required.
Arcaloy 317LAWS A5.4 Tensile Strength Carbon 0.03ASME SFA 5.4 80,000 to 90,000 psi Manganese 1.7Class (552 to 621 MPa) Silicon 0.5E317/317L-15 & -16 % Elongation in 2" (51 mm) Chromium 19.0MIL-E-22200/2, 35 to 45 Nickel 12.7MIL-317-15 & -16 Molybdenum 3.5
FN 9Arcaloy 317L electrodes are recommended for welding type 317 & 317Lwith a maximum 0.04% carbon in the weld deposit. The higher molybde-num content of these electrodes as compared to Arcaloy type 316Lfurther reduces the susceptibility of pitting corrosion.
Arcaloy 347AWS A5.4 Tensile Strength Carbon 0.04ASME SFA 5.4 85,000 to 95,000 psi Manganese 1.8Class E347-15 & -16 (586 to 655 MPa) Silicon 0.6MIL-E-22200/2, % Elongation in 2" (51 mm) Chromium 19.5MIL-E347-15 & -16 35 to 45 Nickel 9.5
Niobium 0.8
FN 8Arcaloy 347 electrodes are especially designed for welding types 347 and321 alloys. Type 347 alloy was developed to prevent carbide precipitation.For service temperataures above 750°F (400°C) use Arcaloy 308H.
Stainless Steel Covered ElectrodesTypical Mechanical Typical Undiluted
Type Properties Weld Metal AnalysisSpecifications As Welded % wt
Recommended Welding Parameters page 2-11
GEN-26110_02.p65 7/10/01, 4:01 PM6
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Arcaloy 410 NiMoAWS A5.4 *Tensile Strength Carbon 0.03ASME SFA 5.4 135,000 psi (931 MPa) Manganese 0.7Class E410NiMo-16 Silicon 0.4
*Yield Strength Chromium 12.095,000 psi (655 MPa) Nickel 4.5% Elongation in 2" (51 mm) Molybdenum 0.5=18
Fully martensitic*Impact Toughness@-40°F (-40°C)27 ft.-lbs. (37J)
*Tempered at1125°F (607°C)
Arcaloy 410 NiMo is designed for the welding of CA-6NM castings. Theyare made on extra low carbon mild steel core wire and therefore have awelding performance similar to a 7018 electrode. Typically, this electrode isused on hydroelectric turbines. Hardness levels below 23 HRc are possiblewith special procedures.
Stainless Steel Covered ElectrodesTypical Mechanical Typical Undiluted
Type Properties Weld Metal AnalysisSpecifications As Welded % wt
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2-8
Stainless Steel Specialty AlloysTypical Mechanical Typical Undiluted
Type Properties Weld Metal AnalysisSpecifications As Welded % wt
Atom Arc 8018-B6LAWS A5.5, Tensile Strength Carbon 0.04ASME SFA 5.5 81,300 psi (561 MPa) Manganese 0.62Class E8018-B6L Yield Strength Silicon 0.63Conforms to 95,000 psi (656 MPa) Phosphorus 0.015E8018-B6LH4R % Elongation in 2" (51 mm) Sulfur 0.011
25 Chromium 5.43Molybdenum 0.55Nickel 0.05
Atom Arc 8018-B6L deposits a low carbon 5% Cr, 1/2% Mo weld metal.It is designed for welding ASTM A200-T5, A335-P5, A387-Gr5 andsimilar steels. Applications tend to be in the petrochemical andpetroleum industries, especially where resistance to hydrogen attack isrequired.The recommended preheat temperature for 5CrMo steels is 400-500°Fdepending on thickness. Post weld heat treatment is generally required.
Atom Arc 9018-B9AWS A5.5, Tensile Strength Carbon 0.1ASME SFA 5.5 120,000 psi (827 MPa) Manganese 1.0Class E9018-B9 Yield Strength Silicon 0.2Conforms to 104,400 psi (717 MPa) Phosphorus 0.01E9018-B9H4R % Elongation in 2" (51 mm) Sulfur 0.01
18 Chromium 9.0Nickel 0.2Molybdenum 1.0Copper 0.1
Atom Arc 9018-B9 is designed to weld the modified 9% Cr - 1% Mosteels known by the designations T91, P91 or Grade 91. These steelsare designed to provide improved creep strength, toughness, andfatigue, and oxidation and corrosion resistance at elevated tempera-tures.The recommended preheat temperature for 9CrMo steels is 450-550°Fdepending on thickness. Post weld heat treatment is generally required.
Additional Stainless Specialty Alloys listed on page 2-10
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2-9
Nickel Steel Alloy Covered ElectrodesTypical Mechanical Typical Undiluted
Type Properties Weld Metal AnalysisSpecifications As Welded % wt
Arcaloy 8N12 and 8N12HAWS A5.11 Tensile Strength Carbon 0.04ASME SFA 5.11 90,000 psi (621 MPa) Manganese 6.0Class ENiCrFe-3 Yield Strength Silicon 0.7MIL-E-22200/3, 60,000 psi (414 MPa) Chromium 15.0MIL-8N12 % Elongation in 2" (51 mm) Nickel 69.0
40 Iron 7.0CV @-320°F (-196°C) Niobium 1.590 ft.-lbs. (122J)
Arcaloy 8N12H has carbon 0.04% minimum. Arcaloy 8N12 electrodes areintended for the welding of high nickel alloys to other nickel alloys, stainlessand low alloy steels. For the welding of low alloy steels to stainless steelsfor high temperature service and for welding Inconel* 600 for someapplications.
*Inconel, Incoloy and Monel are trademarks of the Inco family of compa-nies.
Arcaloy Ni-12AWS A5.11 Tensile Strength Carbon 0.04ASME SFA 5.11 90,000 psi (621 MPa) Manganese 6.5Class ENiCrFe-3 Yield Strength Silicon 0.4
54,000 psi (372 MPa) Chromium 15.0% Elongation in 2" (51 mm) Nickel 68.040 Iron 8.0CV @-320°F (-196°C) Niobium 1.865 ft.-lbs. (88J)
Arcaloy Ni-12 can be used in the same applications as 8N12. It has theadvantage of a nickel core wire which allows higher welding currents andarc force without overheating. This gives welder appeal and a muchbetter vertical fillet.
ESAB OK 92.55AWS A5.11 Tensile Strength Carbon <0.08ASME SFA 5.11 102,000 psi (710 MPa) Manganese 3.0Class ENiCrMo-6 Yield Strength Silicon 0.7
65,200 psi (450 MPa) Chromium 13.0% Elongation in 2" (51 mm) Nickel 70.040 Molybdenum 6.5CV @-320°F (-196°C) Niobium 1.363 ft.-lbs. (85J) Tungsten 1.5
Iron 4.0
ESAB OK 92.55 is designed to weld 9% nickel steels giving an optimumstrength and toughness combination. It can also be used to weld lowalloyed steels where impact toughness is paramount. Developed for use inLNG storage tanks.
Recommended Welding Parameters page 2-12
Additional Arcaloy Electrodes listed on page 2-10
GEN-26110_02.p65 7/10/01, 4:01 PM9
2-10
AdditionalArcaloy Covered Electrodes*
Arcaloy 308HC (MIL-308HC-15 & -16)Arcaloy 309Cb (E309Cb-15 & -16)Arcaloy 310Cb (E310Cb-15 & -16)Arcaloy 310Mo (E310Mo-15 & -16)Arcaloy 316L (E316L-16) ‡Arcaloy 317L Plus (E317/317L-17)Arcaloy 320 (E320-15)Arcaloy 320LR (E320LR-16)Arcaloy 347 Plus (E347-17)Arcaloy 410 (E410-16)
‡ Special Order (FN 2 - 5 max.)
AdditionalStainless Steel Specialty Alloys
Atom Arc 8018-B6Atom Arc 8018-B8
Atom Arc 9015-B9
AdditionalNickel Steel Alloy Electrodes*
Arcaloy 9N10 (ENiCu-7)Arcaloy Cupro Nickel (ECuNi)
* Note: For additional technical information contact theESAB Filler Metals Marketing Department
GEN-26110_02.p65 7/10/01, 4:01 PM10
2-11
Cur
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——
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25-3
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——
——
——
——
——
——
——
——
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3/32
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35-5
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50-7
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45-6
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-110
65-9
080
-100
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(40-
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80-1
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(4.8
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512
5-15
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0-21
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5-13
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5-17
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0-24
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——
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1/4
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GEN-26110_02.p65 7/10/01, 4:01 PM11
2-12
Cur
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GEN-26110_02.p65 7/10/01, 4:01 PM12
2-13
Stub Loss Correction Table for Coated Electrodes
2" 3" 4" 5"Electrode Deposition (50 mm) (75 mm) (100 mm) (125 mm)Length Efficiency STUB STUB STUB STUB
60.0% 50.0% 45.0% 40.0% 35.0%12" 65.0% 54.2% 46.7% 43.3% 37.9%
(300 mm) 70.0% 58.3% 52.5% 46.6% 40.8%Electrode 75.0% 62.5% 56.2% 50.0% 43.7%
80.0% 66.6% 60.0% 53.3% 46.6%60.0% 51.4% 47.1% 42.9% 38.3%
14" 65.0% 55.7% 51.1% 46.4% 41.0%(350 mm) 70.0% 60.0% 55.0% 50.0% 45.0%Electrode 75.0% 64.3% 56.9% 53.6% 46.2%
80.0% 68.5% 62.8% 57.1% 51.4%60.0% 53.3% 50.0% 46.6% 43.3%
18" 65.0% 57.7% 54.2% 50.5% 46.9%(450 mm) 70.0% 62.2% 56.3% 54.4% 50.5%Electrode 75.0% 66.6% 62.5% 56.3% 54.2%
80.0% 71.1% 66.6% 62.2% 57.7%
ElectrodeDiameter
Type Amps
3/32 AC/DC 75 1.50 65%Lime 70 1.60 71%
1/8 AC/DC 100 2.07 65%Lime 100 2.42 71%
5/32 AC/DC 135 3.02 67%Lime 135 3.70 75%
3/16 AC/DC 160 3.88 75%Lime 160 4.35 78%
1/4 AC/DC 250 6.20 73%Lime 250 7.80 78%
Deposition Rates and EfficienciesAC/DC and Lime Electrodes
DepositionRate - Efficiency
GEN-26110_02.p65 7/10/01, 4:01 PM13
2-14
ARCALOY ® Stainless SteelBare Welding Wires
Spools, Cut Lengths, Coils & ReelsAre Available
Spools:Arcaloy stainless steel wires for GMAW welding aresmooth-drawn, with a matte finish. They are gas purgedand chemically cleaned and are protectively packaged toretain their finish until you are ready to use them.The smooth-drawn, uniform surface of the wire coupledwith low helix and controlled cast promotes a steady,uninterrupted feed rate with constant arc conditions.These factors also contribute to a low rate of wear onwire guides and contact tube.All grades of stainless steel electrodes are layer woundon spools or packaged in a Marathon Pac.
Cut Lengths:Arcaloy stainless steel wires are furnished in 36" (914mm) lengths of gas tungsten arc and oxy-acetylenewelding. Cut length rods are available with either flag tagsink printed or laser etched identification.
Coils:Arcaloy stainless steel wires for submerged arc applica-tions are furnished in the fully annealed condition forsmoother, easier feeding on all types of automaticsubmerged arc equipment. All submerged arc wiresare available random wound on fibre rim coils. Sub-merged Arc Fluxes are available (OK 10.92, 10.93, 10.94,10.95 and/or Unionmelt 601).
GEN-26110_02.p65 7/10/01, 4:01 PM14
2-15
Arcaloy ER308LAWS A5.9 Carbon 0.02ASME SFA 5.9 Manganese 1.7Class ER308/308L Silicon 0.4MIL-19933, Chromium 20.5MIL-308L Nickel 9.7ABS-ER308/308L
FN 8
For welding types 304L and 308L. May be used successfully for weldingtypes 304, 308, 321 and 347 steels, provided the service temperature isbelow 600°F (315°C). Can be used for Submerged Arc welding.
Arcaloy ER308LSiAWS A5.9 Carbon 0.02ASME SFA 5.9 Manganese 1.8Class ER308Si/308LSi Silicon 0.8
Chromium 20.5Nickel 9.8
FN 12
The additional silicon content significantly increases wetting action, whichresults in a smooth weld to base metal transition. This electrode isespecially useful in applications where a good cosmetic appearance isnecessary such as furniture, appliances, etc., that are made from materialsof similar composition.
Arcaloy ER309LAWS A5.9 Carbon 0.02ASME SFA 5.9 Manganese 2.0Class ER309/309L Silicon 0.4ABS-ER309/309L Chromium 23.0
Nickel 13.5
FN 9
The extra low carbon content provides good resistance to carbideprecipitation. Used for welding joints between stainless and low alloy steelsfor service below 750°F (400°C) and for cladding. Can be used forSubmerged Arc welding.
Arcaloy ER309LSiAWS A5.9 Carbon 0.02ASME SFA 5.9 Manganese 1.7Class ER309Si/309LSi Silicon 0.8
Chromium 23.0Nickel 12.1
FN 13.5
The addition of silicon significantly increases the wetting action, whichresults in smooth weld metal transition. This particular electrode is ideallysuited for type 309 stainless where cosmetic appearance is desirable. Usedfor welding joints between stainless and low alloy steels for service below750°F (400°C).
Stainless Steel Bare WiresTypical Undiluted
Type Weld Metal AnalysisSpecifications % wt
GEN-26110_02.p65 7/10/01, 4:01 PM15
2-16
Recommended Welding Parameters page 2-18
Additional Arcaloy Wires listed on page 2-17
Arcaloy ER316LAWS A5.9 Carbon 0.02ASME SFA 5.9 Manganese 1.8Class ER316/316L Silicon 0.4MIL-19933 Chromium 19.0MIL-316L Nickel 13.3ABS-ER316/316L Molybdenum 2.2
FN 3
For welding type 316 and 316L. Can be used for Submerged Arc welding.
Arcaloy ER316LSiAWS A5.9 Carbon 0.02ASME SFA 5.9 Manganese 1.8Class ER316Si/316LSi Silicon 0.8
Chromium 19.0Nickel 13.3Molybdenum 2.2
FN 6
Contains a higher amount of silicon, which markedly improves wettingcharacteristics for use in applications demanding a good cosmeticappearance.
Arcaloy ER347AWS A5.9 Carbon 0.06ASME SFA 5.9 Manganese 1.8Class ER347 Silicon 0.4MIL-19933 Chromium 20.0MIL-347 Nickel 9.8
Niobium 0.8
FN 8
For welding types 304, 321 and 347, when the service temperature is below600°F (316°C).
Stainless Steel Bare WiresTypical Undiluted
Type Weld Metal AnalysisSpecifications % wt
GEN-26110_02.p65 7/10/01, 4:01 PM16
2-17
Additional Arcaloy Stainless SteelBare Wires*
Arcaloy ER308H (ER308/308H) GMAW (MIG) only
Arcaloy ER310 (ER310) GTAW (TIG) only
Arcaloy ER312 (ER312) GTAW (TIG) only
Arcaloy ER320LR (ER320LR) GMAW & GTAW(MIG & TIG)
* Note: For additional technical information contact the ESABFiller Metals Marketing Department
GEN-26110_02.p65 7/10/01, 4:01 PM17
2-18
Arc
alo
y Ba
re W
ire D
ep
osi
tion
Da
taa
nd
Cu
rre
nt
Ra
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Cur
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Ran
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ires
Shor
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uit T
rans
fer P
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eter
s (9
0% H
e +
7-1/
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r + 2
-1/2
% C
O2)
Dia
met
erW
FSD
CEP
Volts
Dep
ositi
on R
ate
Avg.
%in
. (m
m)
IPM
(cm
/min
)(E
lect
rode
Pos
itive
)Lb
s. (k
g/hr
)D
epos
ition
Eff.
.030
(0.8
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60-1
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5.4
(0.7
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140-
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GEN-26110_02.p65 7/10/01, 4:01 PM18
2-19
ARCALOY ® Stainless SteelMetal Core Wires
Arcaloy Metal Cored (MC) wires are small diameterstainless steel metal cored electrodes designed primarilyfor the welding of thin gauge materials. These wires havethe typical metal cored wire welding characteristics, i.e.,higher deposition rate and less penetration than a solidwire. As a result, these wires are best used to makesmall butt, fillet and lap type welds on gauge material atincreased travel speeds compared to solid wire.
The low spatter and slag-free welds make these elec-trodes ideal for automatic or robotic welding applications.A lagging gun angle can also be used to further minimizethe penetration and the oxide film formed on the surfaceof the weld. Typical applications include catalyticconverters, manifolds, mufflers, exhaust systems,cladding, etc.
The recommended shielding gas for a spray transfer is anargon rich gas containing 1-2% oxygen or carbon dioxide.For overall best results to limit surface oxides andoptimize the bead shape, the recommended shielding gaswould be 99% Ar/1% CO2. Proprietary argon-basedshielding gases with small amounts of hydrogen and CO2additions also produce excellent results (e.g. 1% H2 + 2-3% CO2, remainder Ar). Pulse welding can also be usedto further minimize the burn-through problems generallyassociated with thin gauge materials.
GEN-26110_02.p65 7/10/01, 4:01 PM19
2-20
Stainless Steel Metal Core WireTypical Mechanical Typical Undiluted
Type Properties Weld Metal AnalysisSpecifications 98 Ar/2 O2 100% Ar
Arcaloy MC 308LAWS A5.9 Tensile Strength Carbon 0.03 Max.Class EC308/308L 83,000 psi (572 MPa) Manganese 1.50CWB; A5.9 Yield Strength Silicon 0.50EC308/308L 58,500 psi (404 MPa) Chromium 20.1
% Elongation in 2” (51mm) Nickel 10.340
FN 11
Arcaloy MC 308L is used for welding types 301, 302, 304, 304L, 308, and308L. May be used for welding types 321 and 347 if service temperaturesdo not exceed 500°F (260°C). Can be used with ESAB OK10.93 flux forSAW.
Arcaloy MC 309LAWS A5.9 Tensile Strength Carbon 0.03 Max.Class EC309/309L 85,400 psi (589 MPa) Manganese 1.53CWB; A5.9 Yield Strength Silicon 0.51EC309/309L 62,300 psi (430 MPa) Chromium 24.1
% Elongation in 2” (51mm) Nickel 12.634
FN 16
Arcaloy MC 309L is designed for welding type 309 wrought or for weldingtype 304 to mild carbon steel. Also recommended for cladding 304 whenwelded to carbon steel. Can be used with ESAB OK10.93 flux for SAW.
Arcaloy MC 316LAWS A5.9 Tensile Strength Carbon 0.03 Max.Class EC316/316L 84,000 psi (579 MPa) Manganese 1.43CWB; A5.9 Yield Strength Silicon 0.55EC316/316L 62,500 psi (431 MPa) Chromium 18.8
% Elongation in 2” (51 mm) Nickel 12.537 Molybdenum 2.5
FN 7
Arcaloy MC316L was developed for welding type 316 stainless. Theaddition of molybdenum helps reduce pitting. Can be used with ESABOK10.93 flux for SAW.
Arcaloy MC 410 NiMoAWS A5.9 *Tensile Strength Carbon 0.011Class EC410NiMo 119,500 psi (825 MPa) Manganese 0.41
*Yield Strength Silicon 0.33104,500 PSI (721 MPa) Chromium 11.48% Elongation in 2" (51 mm) Nickel 4.8518.5 Molybdenum 0.60* CVN Impact Toughtness31 ft/lbs (42 J) @ -40°F (-40°C)
* Stress-relieved 1135°F (613°C)
Arcaloy 410 NiMo is designed for the welding of CA-6NM castings. Thislow carbon electrode produces hardness, after stress relieving, of 21Rc.Can be used with ESAB OK10.93 flux for SAW.
Recommended Welding Parameters page 2-23Additional Arcaloy Wires listed on page 2-22
GEN-26110_02.p65 7/10/01, 4:01 PM20
2-21
Typical Mechanical Typical UndilutedType Properties Weld Metal Analysis
Specifications 98 Ar/2 O2 100% Ar
Arcaloy 409 TiAWS A5.9-93 No Mechanical Properties Carbon 0.02Class EC409 Required Manganese 0.55
Silicon 0.65Phosphorus 0.01Sulfur 0.008Chromium 11.8Titanium 0.9
Arcaloy 409Ti is a 12% Cr alloy stabilized with titanium (Ti) for arc stabilityand to form carbides to improve corrosion resistance, increase strength athigh temperatures, and promote the ferritic microstructure. Cr range is 11.0to 13.50%.
Arcaloy 409CbAWS A5.9 No Mechanical Properties Carbon 0.02Class EC409Cb Required Manganese 0.50
Silicon 0.62Chromium 11.70Niobium 0.60
Arcaloy 409Cb is stabilized with niobium (Nb) for arc stability and to formcarbides as a means to improve corrosion resistance and increase strengthat high temperatures. Cr range is 10.5% to 13.5%.
Arcaloy 439 TiNo AWS No Mechanical Properties Carbon 0.020Classification Required Manganese 0.50
Silicon 0.45Chromium 18.0Titanium 0.60
Arcaloy 439 is an 18% Cr alloy stabilized with titanium (Ti). The high levelof chromium provides additional oxidation and corrosion resistance. Crrange is 17.0% to 19.0%.
Arcaloy 18 CrCbNo AWS No Mechanical Properties Carbon 0.02Classification Required Manganese 0.65
Silicon 0.55Chromium 18.8Titanium 0.25Niobium 0.50
Arcaloy 18 CrCb is an 18% chrome alloy stabilized with titanium (Ti) andniobium (Nb). Designed for welding Armco 18Cr-Cb HP-10TM stainlesssteels. Cr range is 17.5% to 19.5%.
GEN-26110_02.p65 7/10/01, 4:01 PM21
2-22
Additional Arcaloy “MC” (MetalCore) Wires*
Arcaloy MC312 (EC312)Arcaloy MC317L (EC317L)Arcaloy MC410 (EC410)Arcaloy 430 LCb (No AWS Class)
* Note: For additional technical information contact the ESABFiller Metals Marketing Department
Refer to pages 6-2 through 6-17 for information on SubmergedArc Fluxes
GEN-26110_02.p65 7/10/01, 4:01 PM22
2-23
Arcaloy Welding Parameters andDeposition Data
(MC308L, 309L, 316L, 410, 410NiMo, etc.) (a) (b) (c)
Wire Feed DepositionSpeed Rate lbs/hr %
Amps Volts In/Min (kg/hr) Efficiency.045” (1.2mm) 144 16 160 4.2 99.3
245 25 265 7.1 99.3321 26 370 10 99.4390 28 475 13.0 98.5441 30 580 16.0 99.2
1/16” (1.6mm) 212 23 145 6.9 99.2285 23 225 10.8 98.8332 26 300 13.7 98.1420 28 380 18.3 99.5500 31 460 22.5 98.9
Pulse Pulse Pulse PulseWFS Peak Width Background Freq.
.045” (1.2mm) 100 407 1.8 35 71150 418 1.86 44 90200 429 1.91 53 109250 440 1.97 62 128300 451 2.02 70 146350 462 2.08 79 165400 473 2.13 88 184450 484 2.19 97 203500 495 2.24 105 222
Arcaloy Welding Parameters forFerritic Metal Cored Wire
(409Ti, 409Cb, 430LCb, 439Ti, 18 CrCb, etc.) (a)
Wire Feed ElectricalSpeed Stick-out
Amps Volts In/Min (ESO).045” (1.2mm) 200 20 210 0.5"
215 21 230 "234 22 250 "290 24 300 "323 24 350 "
Note: DCEP (Electrode Positive) Only(a) Larger sizes and additional alloys are available on request.(b) Austenitic Grades can be used in submerged arc applications
with ESAB OK Flux 10.93(c) Parameters developed with the ESAB 350 MPI Power Source
GEN-26110_02.p65 7/10/01, 4:01 PM23
2-24
Nickel-Arc™ & Nicore ®
Cast Iron Covered Electrodes and WireType
Specifications Typical MechanicalProperties
Nickel-Arc 55AWS A5.15 Tensile Strength, psi (MPa) 58,500 (403)Class ENiFe-CI-A Hardness in Weld 90-100 Rb
Machinability ExcellentAC/DCEP Color Match Good(Electrode Positive)
This electrode is made with a 55% nickel and 45% iron core, designed forwelding nodular cast iron. The deposit is sound, crack-free and producesgood color matching on gray malleable or nodular cast iron. Proper weldingprocedures should be followed.
Nickel-Arc 550AWS A5.15 Tensile Strength, psi (MPa) 58,500 (403)Class ENiFe-CI-A Hardness in Weld 90-100 Rb
Machinability ExcellentAC/DC Color Match Good
Nickel-Arc 550 was developed with many of the operating characteristics ofthe Nickel-Arc 55. The primary advantage of this electrode is its superiorresistance to overheating, thus producing maximum deposition efficiencyduring welding. The weld deposit is smooth and flat, providing good tie-insbetween stringer beads. Proper welding procedures should be followed.
Nickel-Arc 99AWS A5.15 Tensile Strength, psi (MPa) 69,900 (482);Class ENiCI-A Broke in cast iron
Hardness in Weld 90-100 RbAC/DCEP Machinability Excellent(Electrode Positive) Color Match Good
Nickel-Arc 99 is designed for welding gray, malleable and nodular cast iron.The electrode utilizes a pure nickel core wire. This is particularly importantwhen welding on overlay of cast iron where a high nickel deposit isrequired. Machining is possible with this electrode. Proper weldingprocedures should be followed.
Nicore 55Meets Tensile Strength, psi (MPa) 73,300 (505)AWS ENiFe-CI-A % Elongation in 2" (51 mm) 12
Hardness (undiluted metal) 187 BHNDCEP(Electrode Positive)
The Nicore 55 is a unique “wire-within-a-wire” composite metal coredelectrode developed to join or repair a variety of cast irons. The depositconsists of approximately 50.5% iron and 48% nickel, permitting expansionduring welding. Thermal stresses are minimized due to the less frequentstops and starts previously associated with covered electrodes. Operatingon 98% argon/2% oxygen shielding, this wire will produce a 97% depositionefficiency.
Recommended Welding Parameters page 2-25
GEN-26110_02.p65 7/10/01, 4:01 PM24
2-25
Nic
kel-A
rc C
over
ed E
lect
rode
s (N
A55
, 550
, and
/or 9
9)C
UR
REN
T*R
AN
GE
SO
PTI
MU
MD
iam
eter
in. (
mm
)D
CEP
AC
DC
EPA
C
3/32
(2.4
)65
-90
65-9
080
801/
8(3
.2)
70-1
3090
-130
110
110
5/32
(4.0
)10
0-17
511
0-17
514
014
53/
16(4
.8)
200-
275
210-
275
225
230
*Nic
kel-A
rc 5
50 c
an o
pera
te w
ith 1
0% m
oe c
urre
nt.
Nic
kel-A
rc &
Nic
ore
Sug
gest
ed W
eldi
ng P
aram
eter
s
Nic
ore
Com
posi
te W
ire (N
icor
e 55
)C
UR
REN
TR
ANG
ESD
iam
eter
ESO
in.
(mm
)A
MP
SV
OLT
Sin
. (m
m)
.035
(0.9
)15
0-18
026
-28
1/2
(13)
.045
(1.2
)22
0-25
027
-29
1/2
(13)
1/16
(1.6
)28
0-32
028
-30
5/8
(16)
3/32
(2.4
)38
0-42
030
-32
5/8-
3/4
(16-
19)
GEN-26110_02.p65 7/10/01, 4:01 PM25
2-26
SHIELD-BRIGHT ® andSHIELD-BRIGHT X-traGas Shielded Flux CoredStainless Steel Wires
Shield Bright — All-PositionShield-Bright wires were specially developed for out-of-position welding. They are unsurpassed for vertical-up jointsand work equally well in the overhead position. Theseelectrodes will deposit out-of-position welds at substantiallyhigher welding currents than other stainless steel flux cored,all-position electrodes, resulting in a higher deposition rate.The .035” (0.09mm), .045” (1.2mm) and the 1/16” (1.6mm)diameters perform equally well on out-of-position joints.
Shield Bright X-tra — Flat and HorizontalShield-Bright X-tra was specially developed for highlycosmetic flat and horizontal weldments. The self-releasingslag and finely rippled bead resembles welds made withboth covered electrodes and mig wire. Deposition rates canexceed 19 lbs/hr. (8.6 kg/hr.). Diameters include .035”(0.9mm), .045” (1.2mm), and 1/16” (1.6mm).
Shielding GasesShield-Bright and Shield-Bright X-tra electrodes wereformulated for use with Argon mixtures up to 75% Argonshielding gas; however, straight CO2 may also be used. The75/25 mixture will produce a smoother arc with virtually nospatter and slightly higher yield and tensile strengths thanCO2. The mechanical properties and deposit analyses willmeet AWS A5.22 specifications with either gas.
GEN-26110_02.p65 7/10/01, 4:01 PM26
2-27
Shield-Bright 2209AWS A5.22 Tensile Strength C 0.03ASME SFA 5.22 120,000 psi (828 MPa) Mn 0.95Class Yield Strength Si 0.4E2209T1-4 95,000 psi (650 MPa) Cr 22.5
% Elongation in 2" (51 mm) Ni 9.026 Mo 3.0
N 0.16
FN 35CVN 40 ft-lbs. (54 J) @-20°F (-29°C)
35 ft-lbs. (47 J) @-60°F (-51°C)
Shield-Bright 2209 is an all-position duplex flux cored electrode. It isdesigned for the welding of 22Cr-5Ni-2Mo-0.15N duplex stainless steel.75-80% Argon balance CO2 is recommended.
Shield-Bright 308LAWS A5.22 Tensile Strength C 0.032 (0.034)ASME SFA 5.22 86,000 psi (593 MPa) Mn 1.2 (1.2)Class Yield Strength Si 0.8 (0. 7)E308LT1-1/T1-4 58,500 psi (403 MPa) Cr 19.5 (19.2)MIL-Conf. A5.22 % Elongation in 2" (51 mm) Ni 10.0 (10.0)CWB, TUV 45ABS-A5.22 FN 5 (5)
For welding types 301, 302, 304, 304L, 308, and 308L. May be used forwelding types 321 and 347 if service temperature does not exceed 600°F(315°C). Low carbon content minimizes carbide precipitation.
Cryo-Shield 308LAWS A5.22 Tensile Strength C 0.03ASME SFA 5.22 80,000 psi (552 MPa) Mn 1.2Class Yield Strength Si 0.7E308LT1-4 65,000 psi (449 MPa) Cr 18.8
% Elongation in 2" (51 mm) Ni 10.745
FN 3CVN 27 ft.-lbs. (38 J) @-320°F (-196°C)Lateral Expansion 22 mils (0.55 mm) @-320°F (-196°C)
Cryo-Shield 308L is an all-position wire adaptable to a variety of shop andfield erection applications. The use of argon/CO2 gas shielding isrecommended for maximum toughness. Designed for cryogenicapplications where good weld metal toughness is required. Applicationsinclude cryogenic fabrication and repair.
Stainless Steel Cored WiresTypical Undiluted
Typical Mechanical Weld Metal AnalysisType Properties % wt
Specifications 75/25 75/25 (CO2)
Recommended Welding Parameters page 2-31
Additional Stainless Cored Wires listed on page 2-36
GEN-26110_02.p65 7/10/01, 4:01 PM27
2-28
Shield-Bright 308HAWS A5.22 Tensile Strength C 0.06 (0.06)ASME SFA 5.22 86,800 psi (599 MPa) Mn 1.2 (1.1)Class Yield Strength Si 0.9 (0.7)E308HT1-1/T1-4 65,400 psi (451 MPa) Cr 18.8 (18.7)
% Elongation in 2" (51 mm) Ni 9.7 (9.7)44 Mo 0.1 (0.1)
FN 5 (5)
For welding types 304H and 347H stainless when high temperature serviceis required. CO2 shielding is preferred to reduce silicon content at theseelevated temperatures. Carbon content 0.04% minimum.
Shield-Bright 309LAWS A5.22 Tensile Strength C 0.034 (0.034)ASME SFA 5.22 84,500 psi (583 MPa) Mn 1.3 (1.2)Class Yield Strength Si 0.9 (0.9)E309LT1-1/T1-4 66,500 psi (459 MPa) Cr 22.6 (22.4)MIL-Conf. A5.22 % Elongation in 2" (51 mm) Ni 12.6 (12.5)CWB, TUV 37ABS-A5.22 FN 17 (15)
Designed for welding type 309 wrought, or cast forms, but used extensivelyfor welding type 304 to mild or carbon steel. Also used for welding 304 cladsheets and for applying stainless steel sheet linings to carbon steel. Carboncontent 0.04% maximum. Should not be used for service greater than750°F (400°C).
Shield-Bright 309HAWS A5.22 Tensile Strength C 0.06 (0.06)ASME SFA 5.22 88,300 psi (609 MPa) Mn 1.3 (1.2)Class Yield Strength Si 0.9 (0.7)E309T1-1/T1-4 68,800 psi (475 MPa) Cr 23.7 (23.4)
% Elongation in 2" (51 mm) Ni 12.4 (12.1)35 Mo 0.1 (0.1)
FN 10 (10)
For welding type 309 stainless where high temperature service is required.CO2 shielding is preferred to reduce silicon content at these elevatedtemperatures. Carbon content 0.04% minimum.
Stainless Steel Cored WiresTypical Undiluted
Typical Mechanical Weld Metal AnalysisType Properties % wt
Specifications 75/25 75/25 (CO2)
Recommended Welding Parameters page 2-31
GEN-26110_02.p65 7/10/01, 4:01 PM28
2-29
Shield-Bright 309LMoAWS A5.22 Tensile Strength C 0.038 (0.039)Class 95,000 psi (655 MPa) Mn 1.1 (0.9)E309LMoT1-1/T1-4 Yield Strength Si 0.7 (0.6)
76,500 psi (527 MPa) Cr 23.1 (22.8)% Elongation in 2" (51 mm) Ni 12.8 (13.3)33 Mo 2.7 (2.6)
FN 17 (17)
Designed for welding type 316 clad steels on the first pass in claddingsteels or for welding dissimilar metals such as molybdenum-containingaustenitic stainless steels to carbon steels. Used in paper mills and inpower plants. Should not be used for service temperature greater than750°F (400°C).
Shield-Bright 312AWS A5.22 Tensile Strength C 0.1ASME SFA 5.22 118,000 psi (814 MPa) Mn 1.3Class Yield Strength Si 0.8E312T1-1/T1-4 89,800 psi (620 MPa) Cr 28.6
% Elongation in 2" (51 mm) Ni 9.924 Mo 0.1
FN 60
This wire is designed for welding high carbon and low alloy steels. It hassome success on free-machining steels, low alloy types 303, 416 and 430Fstainless steels. Best results are obtainable when the “buttering” technique isused. Preheating is only usually necessary at carbon levels over 0.3% andthen only at 300°F for higher carbon grades.
Shield-Bright 312 can also be used as a clad layer with superior corrosionresistance or as a buffer layer. Should not be used for service temperaturegreater than 750°F (400°C).
Shield-Bright 316LAWS A5.22 Tensile Strength C 0.038 (0.032)ASME SFA 5.22 89,200 psi (615 MPa) Mn 1.3 (1.3)Class Yield Strength Si 0.9 (0.8)E316LT1-1/T1-4 69,000 psi (476 MPa) Cr 18.5 (18.3)MIL-Conf. A5.22 % Elongation in 2" (51 mm) Ni 12.3 (12.3)CWB, TUV 36 Mo 2.5 (2.5)ABS-A5.22
FN 6 (6)
For welding type 316 stainless. Contains molybdenum which resistspitting corrosion induced by sulphuric and sulphurous acids, chloridesand cellulose solutions. Used widely in the rayon, dye and paper makingindustries. Carbon content 0.04% maximum.
Typical UndilutedTypical Mechanical Weld Metal Analysis
Type Properties % wtSpecifications 75/25 75/25 (CO2)
Recommended Welding Parameters page 2-31
Additional Stainless Cored Wires listed on page 2-36
GEN-26110_02.p65 7/10/01, 4:01 PM29
2-30
Shield-Bright 317LAWS A5.22 Tensile Strength C 0.035 (0.032)ASME SFA 5.22 91,700 psi (632 MPa) Mn 1.3 (1.2)Class Yield Strength Si 0.9 (0.8)E317LT1-1/T1-4 68,800 psi (474 MPa) Cr 18.7 (18.4)
% Elongation in 2" (51 mm) Ni 12.6 (12.5)34 Mo 3.5 (3.4)
FN 8 (8)
Recommended for welding types 316L & 317L stainless steels to give amaximum of 0.04% carbon in the weld deposit. The higher molybdenumcontent, as compared to type 316L, further reduces susceptibility topitting corrosion. Used in the pulp and paper industry and in othersevere corrosion applications involving sulfuric and sulfurous acids andtheir salts.
Shield-Bright 347AWS A5.22 Tensile Strength C 0.032 (0.027)ASME SFA 5.22 96,500 (666 MPa) Mn 1.2 (1.0)Class Yield Strength Si 0.9 (0.9)E347T1-1/T1-4 74,100 psi (511 MPa) Cr 19.6 (18.5)
% Elongation in 2" (51 mm) Ni 9.6 (9.7)34 Nb 0.5 (0.4)
(Magna Gage) FN 9 (8.5)
Developed to weld types 347, 304, 304L and 321 stainless, where servicetemperatures are below 750°F (400°C). The addition of niobium helpsminimize chromium carbide precipitation while providing improvedcorrosion resistance.
Stainless Steel Cored WiresTypical Undiluted
Typical Mechanical Weld Metal AnalysisType Properties % wt
Specifications 75/25 75/25 (CO2)
Recommended Welding Parameters page 2-31
Additional Stainless Cored Wires listed on page 2-36
GEN-26110_02.p65 7/10/01, 4:01 PM30
2-31
Shield-Bright Welding Parameters and Deposition Data
.035" (0.9 mm)Amps 100 120 140 170Volts 23 23 25 26Wire Feed Speed in/min 265 315 405 530 (m/min) (6.7) (8.0) (10.3) (13.5)Deposition Rate lbs/hr 2.9 3.4 4.6 5.7
(kg/hr) (1.3) (1.5) (2.1) (2.6)% Efficiency 83.9 81.4 82.6 81.8
.045" (1.2 mm)Amps 130 165 190 220Volts 25 26 28 30Wire Feed Speed in/min 227 341 445 567 (m/min) (5.8) (8.7) (11.3) (14.4)Deposition Rate lbs/hr 4.25 6.14 8.08 10.24
(kg/hr) (1.9) (2.8) (3.7) (4.6)% Efficiency 84.0 83.0 84.0 84.0
1/16" (1.6 mm)Amps 170 210 250 300Volts 25 27 28 29Wire Feed Speed in/min 154 193 243 321 (m/min) (3.9) (4.9) (6.2) (8.2)Deposition Rate lbs/hr 5.34 6.89 8.57 11.43
(kg/hr) (2.4) (3.1) (3.9) (5.2)% Efficiency 83.0 82.5 83.0 83.0
Electrical Stick Out (ESO) is 1/2 - 1" (12.5 - 25 mm). DCEP(Electrode Positive) is specified. When using 75% Ar/25% CO2mixture, decrease voltage by as much as 2 volts.
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Shield-Bright X-tra 308LAWS A5.22 Tensile Strength C 0.025 (0.03)ASME SFA 5.22 84,900 psi (585 MPa) Mn 1.5 (1.3)Class Yield Strength Si 0.7 (0.6)E308LT0-1/T0-4 62,600 psi (432 MPa) Cr 20.1 (19.2)MIL-Conf. A5.22 % Elongation in 2" (51 mm) Ni 9.6 (9.6)CWB, TUV 38 Mo 0.2 (0.2)ABS-A5.22
FN 11 (9)Designed for welding AISI types 301, 302, 304, 304L, 308, 308L steelswhere service temperatures are below 600°F (315°C). Lower carboncontent helps minimize carbide precipitation.
Shield-Bright X-tra 309LAWS A5.22 Tensile Strength C 0.027 (0.031)ASME SFA 5.22 88,400 psi (609 MPa) Mn 1.6 (1.2)Class Yield Strength Si 0.6 (0.5)E309LT0-1/T0-4 71,000 psi (490 MPa) Cr 24.6 (24.0)MIL-Conf. A5.22 % Elongation in 2" (51 mm) Ni 12.6 (12.7)CWB, TUV 32 Mo 0.2 (0.2)ABS-A5.22
FN 21 (19)Developed to be used when welding most mild or carbon steels to type304. The higher percentages of Cr and Ni provide the necessary crackresistance. Should not be used for service above 750°F (400°C).
Shield-Bright X-tra 309LMoAWS A5.22 Tensile Strength C 0.03 (0.034)Class 102,000 psi (704 MPa) Mn 1.7 (1.6)E309LMoT0-1/T0-4 Yield Strength Si 0.6 (0.6)
81,000 psi (559 MPa) Cr 22.8 (22.5)% Elongation in 2" (51 mm) Ni 13.5 (13.4)30 Mo 2.7 (2.7)
FN 23 (20)Designed for welding type 316 clad steels on the first pass in claddingsteels or for welding dissimilar metals such as molybdenum-containingaustenitic stainless steels to carbon steels. Used in paper mills and inpower plants. Should not be used for service above 750°F (400°C).
Shield-Bright X-tra 316LAWS A5.22 Tensile Strength C 0.03 (0.03)ASME SFA 5.22 82,800 psi (571 MPa) Mn 1.6 (1.5)Class Yield Strength Si 0.7 (0.6)E316LT0-1/T0-4 63,100 psi (435 MPa) Cr 19.0 (18.8)MIL-Conf. A5.22 % Elongation in 2" (51 mm) Ni 12.0 (12.0)CWB, TUV 37 Mo 2.6 (2.5)ABS-A5.22
FN 9 (7.5)Designed specifically for applications where the service environment canproduce pitting corrosion. Commonly used in the pulp and paper industry.
Stainless Steel Cored WiresTypical Undiluted
Typical Mechanical Weld Metal AnalysisType Properties % wt
Specifications 75/25 75/25 (CO2)
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Shield-Bright X-tra WeldingParameters and Deposition Data
.035" (0.9mm)
Amps 120 140 170Volts 23 25 26Wire Feed Speed in/min 315 405 530
(m/min) (8.0) (10.3) (13.5)Deposition Rate lbs/hr 3.4 4.6 5.7
(kg/hr) (1.5) (2.1) (2.6)% Efficiency 81.4 82.6 81.8
.045" (1.2 mm)
Amps 150 200 300Volts 25 29 33Wire Feed Speed in/min 259 410 860
(m/min) (6.6) (10.4) (21.9)Deposition Rate lbs/hr 5.0 7.7 16.9
(kg/hr) (2.3) (3.5) (7.7)% Efficiency 83.9 84.2 87.0
1/16" (1.6 mm)
Amps 200 240 400Volts 25 28 33Wire Feed Speed in/min 172 225 495
(m/min) (4.4) (5.7) (12.58)Deposition Rate lbs/hr 6.7 8.1 18.9
(kg/hr) (3.1) (3.7) (8.6)% Efficiency 83.6 83.6 85.5
Electrical Stick Out (ESO) is 1/2 - 1" (12.5 - 25 mm).DCEP (Electrode Positive) is recommended. When using Ar/CO2mixture, decrease voltage by as much as 2 volts.
Shield-Bright X-tra 317LAWS A5.22 Tensile Strength C 0.03 (0.03)ASME SFA 5.22 89,500 psi (618 MPa) Mn 1.5 (1.4)Class Yield Strength Si 0.6 (0.5)E317LT0-1/T0-4 69,000 psi (476 MPa) Cr 19.5 (19.4)
% Elongation in 2" (51 mm) Ni 12.5 (12.6)34 Mo 3.5 (3.5)
FN 10 (9)For welding type 317 and 317L stainless where additional corrosionresistance that type 316L cannot provide.
Typical UndilutedTypical Mechanical Weld Metal Analysis
Type Properties % wtSpecifications 75/25 75/25 (CO2)
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CORE-BRIGHT ®
Self Shielded Flux CoredStainless Steel Wires
CORE-BRIGHT is a flux cored self-shielding continuouswire designed to operate completely open-arc. Thecareful mixture of alloy and shielding agents in the coreproduces a weld deposit of excellent appearance andradiographic quality. The easily controlled arc andminimal spatter of this continuous feed wire complementits characteristically high deposition rate. The low weldpenetration of CORE-BRIGHT makes it a primary choicefor overlay or buildup applications. Penetration is suffi-cient also for joining like or dissimilar metals. Rollover isminimized by the viscous quality of the quick setting andeasily removable slag. Reduced cleaning time, highdeposition, and a self-shielding ability are all engineeredinto CORE-BRIGHT to give maximum economy andoptimum efficiency in your welding operation.
OperationA constant voltage, direct current generator or rectifiercombined with gear type feed rolls produces best resultsand is recommended.
Welding CurrentDCEP (Electrode Positive)
Standard Diameters0.045” (1.2mm), 1/16” (1.6mm),5/64" (2.0mm) and 3/32" (2.4mm)
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Core-Bright 308LAWS A5.22 Tensile Strength Carbon 0.07ASME SFA 5.22 90,000 psi (621 MPa) Manganese 1.5Class E308LT0-3 Yield Strength Silicon 0.6CWB E308LT0-3 62,000 psi (427 MPa) Chromium 19.9
% Elongation in 2" (51 mm) Nickel 9.940 Molybdenum 2.1
Welds types 301, 302, 304, 304L, 308, 321, and 347 stainless steels andaustenitic manganese steels. Used extensively for welding chemical plantequipment.
Core-Bright 309LAWS A5.22 Tensile Strength Carbon 0.023ASME SFA 5.22 91,000 psi (627 MPa) Manganese 1.3Class E309LT0-3 Yield Strength Silicon 0.6CWB E309LT0-3 64,000 psi (441 MPa) Chromium 24.0
% Elongation in 2" (51 mm) Nickel 12.834
Designed primarily for overlay applications on carbon steel. May also beused for welding 309 stainless and joining dissimilar metals.
Core-Bright 316LAWS A5.22 Tensile Strength Carbon 0.025ASME SFA 5.22 87,000 psi (600 MPa) Manganese 1.3Class E316LT0-3 Yield Strength Silicon 0.7CWB E316LT-03 62,000 psi (427 MPa) Chromium 19.7
% Elongation in 2" (51 mm) Nickel 12.542 Molybdenum 2.2
Welds types 316, 316L and 318 steels. Contain 2-2.5% molybdenum toincrease the corrosion resistance to pitting induced by sulfuric andsulfurous acids, sulphites, chloride, and cellulose solutions. Usedextensively in the rayon, dye, and paper industries.
Core-Bright 347AWS A5.22 Tensile Strength Carbon 0.028ASME SFA 5.22 92,000 psi (634 MPa) Manganese 1.5Class E347T0-3 Yield Strength Silicon 0.7
66,000 psi (455 MPa) Chromium 20.2% Elongation in 2" (51 mm) Nickel 10.137 Columbium 0.6
Welds 347, 304L and 321 stainless where the service temperature is below600°F (316°C). Used where maximum resistance to corrosion is required.The weld deposit contains columbium which prevents harmful chromiumcarbide precipitation.
Recommended Welding Parameters page 2-37
* Ferrite values can vary depending on specific weldingparameters. Consult technical service for specific operatingconditions.
Stainless Steel Cored Wires*Typical Mechanical Typical Undiluted
Type Properties Weld Metal AnalysisSpecifications As Welded % wt
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AdditionalStainless Steel Cored Wires*
Shield-Bright 308Mo (E308MoT1-1/T1-4)Shield-Bright 308LMo (E308LMoT1-1/T1-4)Shield-Bright 316H (E316HT1-1/T1-4)Core-Bright 307 (E307T0-3)Core-Bright 308Mo (E308MoT0-3)Core-Bright 308H (E308HT0-3)Core-Bright 309LMo (E309LMoT0-3)Core-Bright 312 (E312T0-3)
* Note: For additional technical information contact the ESABFiller Metals Marketing Department
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0.045” (1.2mm) Diameter (3/4” [19 mm] ESO)Amps 110 150 180Volts 26 26.5 27WFS - in/min. 300 400 500(cm/min.) (762) (1016) (1270)Depos. Rate - lbs/hr. 5.8 8.1 9.8(kg/hr.) (2.6) (3.67) (4.45)% Efficiency 86.1 86.4 86.8
1/16” (1.6 mm) Diameter (3/4” [19 mm] ESO)Amps 150 210 270Volts 27 28 29WFS - in/min. 200 300 400(cm/min.) (508) (762) (1016)Depos. Rate - lbs/hr. 6.8 10.3 13.5(kg/hr.) (3.08) (4.67) (6.12)% Efficiency 86.7 86.8 85.4
5/64" (2.0 mm) Diameter (3/4" [19 mm] ESO)Amps 210 250 300Volts 24 26 27WFS - in/min. 137 181 236(cm/min.) (348) (460) (599)Depos. Rate - lbs/hr. 7.1 9.5 12(kg/hr.) (3.2) (4.3) (5.4)% Efficiency 86.2 87.2 85.4
3/32" (2.4 mm) Diameter (1" [25 mm] ESO)Amps 250 300 350 400 450Volts 26 28 29 30 30WFS - in/min. 112 136 184 221 273(cm/min.) (284) (345) (467) (561) (693)Depos. Rate - lbs/hr. 8.4 10.2 13.9 16.2 20.6(kg/hr.) (3.8) (4.6) (467) (561) (693)% Efficiency 85.3 85.2 88.1 85.4 85.1
3/32" (2.4 mm) Diameter (11/2" [38 mm] ESO)Amps 250 300 350 400 450Volts 26 28 29 30 30WFS - in/min. 133 178 227 302 343(cm/min.) (338) (402) (577) (767) (871)Depos. Rate - lbs/hr. 10 13.5 17.1 22.7 25.9(kg/hr.) (4.5) (6.1) (7.8) (10.3) (11.7)% Efficiency 89.4 89.5 87.2 87.2 87.3
Core-Bright Welding Parametersand Deposition Data
Note: DCEP (Electrode Positive) Only
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NOTES
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3-1
SOLID WIRE & ROD PRODUCTSSection 3
DESCRIPTION PAGE
Spoolarc MIG Wires..............................................3-2AWS Specifications A5.18 & A5.28 ....................... 3-3
Carbon Steel Wires ......................................... 3-4Manganese-Molybdenum (Mn-Mo) Wire ...... 3-11High Strength Wires ...................................... 3-13Special Purpose Wires ................................. 3-15Oxweld Gas Welding Rods ........................... 3-16Spoolarc Solid Wire Chemistries .................. 3-17SpoolarcRecommended Welding Parameters ............ 3-18Spoolarc Deposition & Efficiency Data ........... 3-20
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3-2
Spoolarc® MIG Wires
The wide selection of MIG wires in the ESAB line insurethat a wire with the proper amount of deoxidizers isavailable for whatever your requirements might be.Spoolarc HI-DEP III wires have improved feedabilitybecause the wire surface is treated with a speciallubricant which minimizes wire feed forces. Columnstrength is 25% greater than conventional wires and thesurface copper is thin and tightly adherent —it won’t flake off.Copper to copper (instead of copper-to-steel) contactmeans far better current transfer, less arcing especially athigh currents resulting in longer contact tip life.Most of the data in this booklet are based on AWS testsperformed under laboratory conditions. That is why it isimportant to test the selected wire/gas combination in thesame joint and under the same conditions to be usedduring actual production.
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3-3
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GEN-26110_03.p65 7/10/01, 4:01 PM3
3-4
Carbon Steel WiresSpoolarc Easy GrindNo AWS Class
Description:Spoolarc Easy Grind is a fully deoxidized wire designedto weld over moderate levels of rust and paint as arecommonly encountered in auto body repair work. EasyGrind produces welds that easily meet the tensile require-ments of other ER70S class wires.Easy Grind is produced in small diameters and is appro-priate for the low current welding machines commonlyused in body shops.
Typical Mechanical PropertiesAs Welded
75% Ar/25% CO2
Yield Strength, psi (MPa) 72,000 (497)Tensile Strength, psi (MPa) 80,000 (552)% Elongation in 2" (51 mm) 24
Typical Charpy V-Notch Impact PropertiesAs Welded
Testing Temp. ft.-lbs. (J)
-20°F (-29°C) 40 (54)
Standard Diameters.023" (0.6 mm), .030" (0.8 mm)
Recommended Welding Parameters pages 3-18 & 3-19
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3-5
Carbon Steel WiresSpoolarc 65AWS Class ER70S-2
Code and Specification Data:AWS A5.18, ASME SFA 5.18Military - MIL 70S-2, MIL-E-23765/1ABS - ER70S-2CWB-CSA W48.4-M, ER480S-2
Description:Spoolarc 65 is a triple deoxidized (aluminum, titanium,zirconium) welding wire designed for welding over rustand mill scale. The less fluid weld puddle of Spoolarc 65makes it easy to control when used out of position.Spoolarc 65 is the preferred wire for all position weldingof small diameter pipe. This product is available in formssuitable for MIG and TIG welding.
Typical Mechanical Properties-----------As Welded----------- Stress Relieved
GMAW GTAW GTAWTesting Temp. 98%Ar/2%O2 CO2 Argon 8 Hrs @ 1125°F
Yield Strength, 68,000 66,000 67,500 65,000psi (MPa) (469) (455) (466) (448)
Tensile Strength, 82,000 76,000 77,500 77,000psi (MPa) (566) (524) (534) (531)
% Elongation in 2" 28 26 31 30(51 mm)
Typical Charpy V-Notch Impact Properties-----------As Welded----------- Stress Relieved
GMAW GTAW GTAWTesting Temp. 98%Ar/2%O2 CO2 Argon 8 Hrs @ 1125°F
ft.-lbs. (J) ft.-lbs. (J) ft.-lbs. (J) ft.-lbs. (J)
-20°F (-29°C) 45 (61) 35 (47) 170 (230) 190 (258)
Typical Undiluted Weld Metal Analysis (%)Gas/Process C Mn Si P S
CO2 /GMAW 0.056 0.75 0.29 0.017 0.007Argon/GTAW 0.06 1.05 0.45 0.017 0.008
Standard DiametersMIG:.030" (0.8 mm), .035" (0.9 mm), .045" (1.2 mm), 1/16" (1.6 mm),3/32" (2.4 mm)
TIG: (*TIG rod available flagged or unflagged)1/16" (1.6 mm) x 36" (914 mm) lengths3/32" (2.4 mm) x 36" (914 mm) lengths1/8" (3.2 mm) x 36" (914 mm) lengths
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Carbon Steel WiresSpoolarc 29SAWS Class ER70S-3
Code and Specification Data:AWS A5.18, ASME SFA 5.18ABS - ER70S-3, 3SA, 3YSA
Description:Spoolarc 29S is an economically priced general purposeMIG wire suitable for many carbon steel welding applica-tions. It provides sufficient deoxidation to allow weldingover light mill scale.Spoolarc 29S is used in a wide variety of applicationsincluding heavy equipment, automotive parts, railcars,farm implements, and sheet metal.
Typical Mechanical PropertiesAs Welded
CO2
Yield Strength, psi (MPa) 60,100 (415)Tensile Strength, psi (MPa) 75,000 (518)% Elongation in 2" (51 mm) 32
Typical Charpy V-Notch Impact PropertiesAs Welded
CO2Testing Temp. ft.-lbs. (J)
0°F (-18°C) 83 (113)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S
CO2 0.083 0.88 0.34 0.011 0.009
Standard Diameters.030" (0.8 mm), .035" (0.9 mm), .045" (1.2 mm), .052" (1.4 mm),1/16" (1.6 mm)
Recommended Welding Parameters pages 3-18 & 3-19
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3-7
Carbon Steel WiresSpoolarc 82AWS Class ER70S-3
Code and Specification Data:AWS A5.18, ASME SFA 5.18Military - MIL 70S-3, MIL-E-23765/1ABS - ER70S-3, 3SA, 3YSALloyds - 3SA, 3YSA
Description:Spoolarc 82 is a premium quality, general purpose MIGwire subjected to the stringent quality control proceduresrequired for certification to military, Lloyds, and ABSspecifications.Spoolarc 82 is recommended for pressure vessel andpipe fabrication, HVAC duct work, and general carbonsteel structural welding.
Typical Mechanical PropertiesAs Welded
98% Ar/2% O2 CO2
Yield Strength, psi (MPa) 66,200 (457) 62,500 (431)Tensile Strength, psi (MPa) 79,400 (548) 76,100 (525)% Elongation in 2" (51 mm) 28 28
Typical Charpy V-Notch Impact PropertiesAs Welded
98% Ar/2% O2 CO2Testing Temp. ft.-lbs. (J) ft.-lbs. (J)
0°F (-18°C) 110 (149) 87 (118)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S
98% Ar/2% O2 0.063 1.07 0.46 0.009 0.010CO2 0.073 0.87 0.32 0.009 0.010
Standard Diameters.030" (0.8 mm), .035" (0.9 mm), .045" (1.2 mm), .052" (1.4 mm),1/16" (1.6 mm)
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Carbon Steel WiresSpoolarc 85AWS Class ER70S-4
Code and Specification Data:AWS A5.18, ASME SFA 5.18Military - MIL 70S-4, MIL-E-23765/1ABS - ER70S-4
Description:Spoolarc 85 contains more manganese and silicon forgreater deoxidation capability when compared to ER70S-3 wire. The higher level of deoxidizers provides for betterrust and scale tolerance and it also improves beadwetting.Spoolarc 85 is typically used for applications includingwelding of farm machinery, material handling equipment,and piping.
Typical Mechanical PropertiesAs Welded
98% Ar/2% O2 CO2
Yield Strength, psi (MPa) 69,000 (476) 65,300 (451)Tensile Strength, psi (MPa) 83,500 (576) 78,900 (544)% Elongation in 2" (51 mm) 24 26
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S
98% Ar/2% O2 0.084 1.10 0.60 0.004 0.009CO2 0.078 0.95 0.45 0.004 0.009
Standard Diameters.030" (0.8 mm), .035" (0.9 mm), .045" (1.2 mm), 1/16" (1.6 mm)
Recommended Welding Parameters pages 3-18 & 3-19
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Carbon Steel WiresSpoolarc 86AWS Class ER70S-6
Code and Specification Data:AWS A5.18, ASME SFA 5.18Military - MIL 70S-6, MIL-E-23765/1ABS - ER70S-6Lloyds - 3SA, 3YSACWB-CSA W48.4-M, ER40S-6
Description:Spoolarc 86 contains higher levels of manganese andsilicon than the other standard grades of MIG wire. Thiswire features excellent tolerance of rust and scale,excellent wetting, and a highly fluid weld puddle. It alsoproduces the highest deposit strength of all the carbonsteel MIG wires.Spoolarc 86 is used for butt and fillet welding of sheet andplate of a variety of thickness. Applications include HVACduct work, heavy equipment, structural, and generalcarbon steel fabrication.
Typical Mechanical PropertiesAs Welded
75% Ar/25% CO2 CO2
Yield Strength, psi (MPa) 72,000 (497) 68,000 (469)Tensile Strength, psi (MPa) 86,000 (593) 81,600 (563)% Elongation in 2" (51 mm) 27 30
Typical Charpy V-Notch Impact PropertiesAs Welded
75% Ar/25% CO2 CO2Testing Temp. ft.-lbs. (J) ft.-lbs. (J)
-20°F (-29°C) 67 (91) 45 (61)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S
75% Ar/25% CO2 0.070 1.19 0.62 0.012 0.011CO2 0.090 1.08 0.51 0.014 0.010
Standard Diameters.023" (0.6 mm), .030" (0.8 mm), .035" (0.9 mm), .045" (1.2 mm),.052" (1.4 mm), 1/16" (1.6 mm)
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Carbon Steel WiresSpoolarc 87 HPAWS Class ER70S-7
Code and Specification Data:AWS A5.18, ASME SFA 5.18CWB-CSA W48.4-M, ER480S-7
Description:Spoolarc 87 HP is a high manganese carbon steel wire. Itfeatures an optimized manganese to silicon ratio toproduce excellent appearing welds over a wide range ofwelding parameters. It also produces excellent weld metalmechanical properties.Spoolarc 87 HP is suitable for welding over moderateamounts of rust and scale. This wire is widely used forrobotic welding applications in the automotive industry,and fabrication of heavy equipment and farm implements.Spoolarc 87 HP is also available as a TIG rod.
Typical Mechanical PropertiesAs Welded
MIG TIG75% Ar/25% CO2 CO2 Argon
Yield Strength, psi (MPa) 72,800 (502) 69,900 (482) 69,000 (476)Tensile Strength, psi (MPa) 81,100 (559) 78,600 (542) 82,000 (566)% Elongation in 2" (51 mm) 29 22 33
Typical Charpy V-Notch Impact PropertiesAs Welded
MIG TIG75% Ar/25% CO2 CO2 Argon
Testing Temp. ft.-lbs. (J) ft.-lbs. (J) ft.-lbs. (J)
-20°F (-29°C) 62 (84) 55 (75) 127 (172)
Typical Undiluted Weld Metal Analysis (%)Gas/Process C Mn Si P S
75% Ar/25% CO2/MIG 0.080 1.54 0.42 0.013 0.012CO2/MIG 0.081 1.24 0.38 0.012 0.010Argon/TIG 0.110 1.80 0.70 0.013 0.012
Standard DiametersMIG:.023" (0.6 mm), .030" (0.8 mm), .035" (0.9 mm), .045" (1.2 mm),.052" (1.4 mm), 1/16" (1.6 mm)
TIG:1/16" (1.6 mm) x 36" (914 mm) lengths3/32" (2.4 mm) x 36" (914 mm) lengths1/8" (3.2 mm) x 36" (914 mm) lengths
Recommended Welding Parameters pages 3-18 & 3-19
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Manganese-Molybdenum(Mn-Mo) WiresSpoolarc 83AWS Class ER80S-D2
Code and Specification Data:AWS A5.28, ASME SFA 5.28Military MIL-80S-3, MIL-E-23765/2CWB-AWS A5.28, ER80-D2
Description:Spoolarc 83 contains 1/2% Mo to provide higher depositstrength in both the as welded and stress relievedconditions. It contains high levels of manganese andsilicon to provide good wetting and good rust and scaletolerance.Spoolarc 83 also is used for all position welding of hightensile pipe and tubing commonly found in earthmovingand construction equipment. It is available in formssuitable for MIG and TIG welding.
Typical Mechanical PropertiesStress Relieved
8 hrs.As Welded @1150°F (621°C)
98% Ar/2% O2 CO2 98% Ar/2% O2
Yield Strength, psi (MPa) 95,000 (656) 77,000 (531) 75,000 (518)Tensile Strength, psi (MPa) 110,000 (759) 92,000 (634) 89,000 (614)% Elongation in 2" (51 mm) 22 23 29
Typical Charpy V-Notch Impact PropertiesStress Relieved
8 hrs.As Welded @1150°F (621°C)
98% Ar/2% O2 CO2 98% Ar/2% O2Testing Temp. ft.-lbs. (J) ft.-lbs. (J) ft.-lbs. (J)
-20°F (-29°C) 87 (118) 44 (60) 31 (42)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S Mo
98% Ar/2% O2 0.110 1.65 0.60 0.013 0.012 0.43CO2 0.080 1.16 0.34 0.008 0.012 0.39
Standard DiametersMIG:.030" (0.8 mm), .035" (0.9 mm), .045" (1.2 mm), 1/16" (1.6 mm)
TIG:1/16" (1.6 mm) x 36" (914 mm) lengths3/32" (2.4 mm) x 36" (914 mm) lengths1/8" (3.2 mm) x 36" (914 mm) lengths
GEN-26110_03.p65 7/10/01, 4:01 PM11
3-12
Manganese-Molybdenum(Mn-Mo) WiresSpoolarc Hi-84AWS Class ER80S-D2
Code and Specification Data:AWS A5.28, ASME SFA 5.28
Description:Spoolarc Hi-84 is a 1/2% Mo wire that has been micro-alloyed to produce exceptional impact toughness attemperatures as low as -50°F (-46°C). Hi-84 produces ahigh strength weld deposit and has good tolerance of rustand mill scale.Spoolarc Hi-84 is used for welding gas transmission pipe,offshore structural members, oil field equipment, andother similar applications.
Typical Mechanical PropertiesAs Welded
CO2
Yield Strength, psi (MPa) 89,000 (613)Tensile Strength, psi (MPa) 100,000 (689)% Elongation in 2" (51 mm) 23
Typical Charpy V-Notch Impact PropertiesStress Relieved
CO2Testing Temp. ft.-lbs. (J)
-20°F (-29°C) 60 (81)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S Mo
98% Ar/2% O2 0.072 1.63 0.47 0.013 0.012 0.49CO2 0.085 1.39 0.37 0.013 0.011 0.50
Standard Diameters and Packages.035" (0.9 mm) x 44# (20 kg) spl.045" (1.2 mm) x 44# (20 kg) spl1/16" (1.6 mm) x 44# (20 kg) spl
Recommended Welding Parameters pages 3-18 & 3-19
GEN-26110_03.p65 7/10/01, 4:01 PM12
3-13
High Strength WiresSpoolarc 95AWS Class ER100S-1
Code and Specification Data:AWS A5.28, ASME SFA 5.28Military - MIL 100S-1, MIL-E-23765/2
Description:Spoolarc 95 is Military grade high strength wire used toweld HY-80 steels. This wire produces excellent mechani-cal properties and low temperature toughness under avariety of welding conditions (up to 110 Kj).Applications for Spoolarc 95 include military tanks, shipsand submarines. In addition, this wire has been success-fully used to fabricate low temperature arctic piping.
Typical Mechanical PropertiesAs Welded
98% Ar/2% O2
Yield Strength, psi (MPa) 95,000 (656)Tensile Strength, psi (MPa) 105,000 (725)% Elongation in 2" (51 mm) 23
Typical Charpy V-Notch Impact PropertiesAs Welded
98% Ar/2% O2Testing Temp. ft.-lbs. (J)
0°F (-18°C) 93 (126)-60°F (-51°C) 65 (88)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S Cr Ni Mo
98% Ar/2% O2 0.07 1.40 0.35 0.008 0.007 0.20 1.80 0.35
Standard Diameters.030" (0.8 mm), .035" (0.9 mm), .045" (1.2 mm), 1/16" (1.6 mm)
GEN-26110_03.p65 7/10/01, 4:01 PM13
3-14
Spoolarc 120AWS Class ER120S-1
Code and Specification Data:AWS A5.28, ASME SFA 5.28Military - MIL 120S-1, MIL-E-23765/2
Description:Spoolarc 120 is a Military grade of high strength wireused to weld HY-100 and other similar steels. Thiswire produces excellent mechanical properties and lowtemperature toughness under a variety of weldingparameters.Applications for Spoolarc 120 include military tanks,ships and submarines. In addition, high strength pressurevessels and heat treatable steels such as 4130 canbe welded.
Typical Mechanical PropertiesAs Welded
98% Ar/2% O2
Yield Strength, psi (MPa) 112,000 (773)Tensile Strength, psi (MPa) 123,000 (849)% Elongation in 2" (51 mm) 19
Typical Charpy V-Notch Impact PropertiesAs Welded
98% Ar/2% O2Testing Temp. ft.-lbs. (J)
0°F (-18°C) 100 (136)-60°F (-51°C) 75 (102)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S Cr Ni Mo
98% Ar/2% O2 0.07 1.30 0.35 0.007 0.008 0.40 2.60 0.45
Standard Diameters.030" (0.8 mm), .035" (0.9 mm), .045" (1.2 mm), 1/16" (1.6 mm)
Recommended Welding Parameters pages 3-18 & 3-19
GEN-26110_03.p65 7/10/01, 4:01 PM14
3-15
Special Purpose WiresSpoolarc WSAWS Class ER80S-GCode and Specification Data:AWS A5.28, ASME SFA 5.28
Description:Spoolarc WS is a special purpose wire designed to weldweathering grade steels. The weld metal propertiesprovide the color matching characteristics desired forASTM A588, A242, Cor-Ten® and Mayari R® steels. Themechanical properties meet the Federal Highway(AASHTO) Charpy impact standards (see below).Applications include butt and fillet welds on structuralsupport members and other fabrication requirements forwelding weathering grade steels.
Typical Mechanical PropertiesAs Welded 98% Ar/2% O2
Yield Strength, psi (MPa) 72,500 (500)Tensile Strength, psi (MPa) 78,500 (542)% Elongation in 2" (51 mm) 24
Typical Charpy V-Notch Impact PropertiesAs Welded 98% Ar/2% O2
Testing Temp. ft.-lbs. (J)
-20°F (-29°C) 25 (34)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S Cr Ni Cu
98% Ar/2% O2 0.10 0.55 0.23 0.014 0.009 0.45 0.55 0.45
Spoolarc 140No AWS Class
Description:Spoolarc 140 is a high strength wire designed to weld HY-130 steels. Meets MIL 140S-1 chemistry requirements.Applications include Military grade material, as well ascastings and some heat-treatable steels.
Standard Diameters.035" (0.9 mm), .045" (1.2 mm), 1/16" (1.6 mm)
Recommended Welding Parameters pages 3-19 & 3-20
GEN-26110_03.p65 7/10/01, 4:01 PM15
3-16
Gas Welding RodsOxweld 1 HTAWS Class RG60 (AWS A5.2)
Description:Oxweld 1 HT is an oxy-fuel rod for steel pipe, castingsand wrought iron applications. Deposit strengths inexcess of 60 ksi (414 MPa) can be achieved.
Standard Diameters and Lengths1/16" (1.6 mm) x 36" (914 mm) lengths3/32" (2.4 mm) x 36" (914 mm) lengths1/8" (3.2 mm) x 36" (914 mm) lengths5/32" (4.0 mm) x 36" (914 mm) lengths3/16" (4.8 mm) x 36" (914 mm) lengths
Oxweld 7AWS Class RG45 (AWS A5.2)
Description:Oxweld 7 is a low carbon, low manganese oxy-fueldesigned for improved machinability on steel plate, pipeand wrought iron.
Standard Diameters and Lengths1/16" (1.6 mm) x 36" (914 mm) lengths3/32" (2.4 mm) x 36" (914 mm) lengths1/8" (3.2 mm) x 36" (914 mm) lengths5/32" (4.0 mm) x 36" (914 mm) lengths3/16" (4.8 mm) x 36" (914 mm) lengths
Oxweld 32 CMSAWS Class RG65 (AWS A5.2)
Description:Oxweld 32 is a low alloy oxy-fuel rod designed for highspeed fusion welding of pressure vessels, tanks andpiping. Weld metal strengths average 70-80 ksi (483-552).
Standard Diameters and Lengths1/16" (1.6 mm) x 36" (914 mm) lengths3/32" (2.4 mm) x 36" (914 mm) lengths1/8" (3.2 mm) x 36" (914 mm) lengths5/32" (4.0 mm) x 36" (914 mm) lengths3/16" (4.8 mm) x 36" (914 mm) lengths
GEN-26110_03.p65 7/10/01, 4:01 PM16
3-17
Spoo
larc
Typ
ical
Wir
e A
naly
sis
Wire
CM
nSi
PS
Cr
Ni
Mo
Al
TiZr
Cu
Spoo
larc
65
0.04
81.
140
0.52
00.
018
0.00
70.
090
0.08
00.
050
0.13
3Sp
oola
rc 2
9S0.
087
1.17
00.
570
0.01
30.
009
0.11
7Sp
oola
rc 8
20.
076
1.22
00.
590
0.01
00.
007
0.12
3Sp
oola
rc 8
50.
091
1.23
00.
740
0.00
50.
007
0.11
0Sp
oola
rc 8
60.
084
1.47
00.
850
0.01
50.
009
0.12
3Sp
oola
rc 8
7HP
0.09
11.
610
0.58
00.
013
0.01
20.
125
Spoo
larc
83
0.09
01.
830
0.60
00.
011
0.01
00.
030
0.04
00.
480
0.12
2Sp
oola
rc H
i-84
0.08
51.
910
0.67
00.
012
0.00
90.
030
0.05
00.
460
0.10
9Sp
oola
rc 9
50.
060
1.62
00.
320
0.00
50.
008
0.11
01.
720
0.33
00.
124
Spoo
larc
120
0.07
01.
600
0.32
00.
005
0.00
60.
310
2.33
00.
480
0.12
0Sp
oola
rc 1
400.
110
1.60
00.
350
0.00
70.
006
0.70
02.
600
0.90
0Sp
oola
rc W
S0.
080
0.49
00.
250
0.01
80.
011
0.65
00.
640
0.45
0
GEN-26110_03.p65 7/10/01, 4:01 PM17
3-18
Spoo
larc
Rec
omm
ende
d W
eldi
ng P
aram
eter
sSH
OR
T A
RC
Elec
trode
Elec
trode
RAN
GE:
OPT
IMU
M:
Dia
met
erU
nit L
engt
h/W
t.IP
MIP
Min
. (m
m)
in./l
b (m
/kg)
Amps
Volts
(cm
/min
)Am
psVo
lts(c
m/m
in)
.023
(0.6
)85
05(4
76)
45-9
014
-16
150-
380
7015
300
(381
-965
)(7
62)
.030
(0.8
)50
00(2
80)
60-1
4014
-16
150-
350
100
1522
0(3
81-8
89)
(559
).0
35(0
.9)
3670
(206
)90
-160
15-1
918
0-30
013
017
250
(457
-762
)(6
35)
.045
(1.2
)22
20(1
24)
130-
200
17-1
912
5-20
016
018
150
(318
-508
)(3
81)
.052
(1.4
)16
65(
93)
150-
200
17-2
013
5-19
016
018
140
(343
-483
)(3
56)
GEN-26110_03.p65 7/10/01, 4:01 PM18
3-19
Spoo
larc
Rec
omm
ende
d W
eldi
ng P
aram
eter
s (c
ont’d
.)SP
RA
Y A
RC
Elec
trode
Elec
trode
RAN
GE:
OPT
IMU
M:
Dia
met
erU
nit L
engt
h/W
t.IP
MIP
Min
. (m
m)
in./l
b (m
/kg)
Amps
Volts
(cm
/min
)Am
psVo
lts(c
m/m
in)
.023
(0.6
)85
05(4
76)
100-
125
23-2
540
0-62
011
023
450
(101
6-15
75)
(114
3).0
30(0
.8)
5000
(280
)16
0-20
024
-26
500-
650
180
2552
0(1
270-
1651
)(1
321)
.035
(0.9
)36
70(2
06)
180-
230
25-2
740
0-55
020
026
480
(101
6-13
97)
(121
9).0
45(1
.2)
2220
(124
)26
0-34
025
-30
300-
500
300
2735
0(7
62-1
270)
(889
).0
52(1
.4)
1665
( 93
)27
5-40
026
-33
265-
390
325
2831
0(6
73-9
91)
(787
).0
62(1
.6)
1150
( 64
)29
0-40
026
-36
180-
280
340
2720
0(4
57-7
11)
(508
)
Not
e: D
CEP
(Ele
ctro
de P
ositi
ve);
Flow
rate
s of
25-
45 C
FH is
requ
ired.
GEN-26110_03.p65 7/10/01, 4:01 PM19
3-20
Spoo
larc
Dep
osit
ion
and
Effic
ienc
y D
ata
for
MIG
Wel
ding
Wir
esD
epos
ition
Rat
e lb
s./h
r (kg
/hr)
Elec
trode
98%
Ar
75%
Ar
Stra
ight
Dia
met
er2%
O2
25%
CO
2C
O2
in. (
mm
)Am
ps*9
8% E
ff.*9
6% E
ff.*9
3% E
ff.
.030
(0.8
)75
2.0
(0.9
1)1.
9(0
.86)
1.8
(0.8
2)10
02.
6(1
.18)
2.6
(1.1
8)2.
5(1
.13)
150
4.1
(1.8
6)4.
0(1
.81)
3.9
(1.7
7)20
06.
8(3
.08)
6.7
(3.0
4)6.
5(2
.95)
.035
(0.9
)80
2.2
(1.0
0)2.
1(0
.95)
2.0
(0.9
1)10
02.
7(1
.22)
2.7
(1.2
2)2.
6(1
.18)
150
4.2
(1.9
0)4.
1(1
.86)
4.0
(1.8
1)20
06.
2(2
.81)
6.0
(2.7
2)5.
9(2
.68)
250
9.0
(4.0
8)8.
8(3
.99)
8.6
(3.9
0).0
45(1
.2)
100
2.1
(0.9
5)2.
0(0
.91)
1.9
(0.8
6)12
52.
8(1
.27)
2.8
(1.2
7)2.
7(1
.22)
150
3.6
(1.6
3)3.
5(1
.59)
3.4
(1.5
4)20
05.
6(2
.54)
5.5
(2.4
9)5.
3(2
.40)
250
7.8
(3.5
8)7.
6(3
.45)
7.4
(3.3
6)30
010
.2(4
.63)
10.0
(4.5
3)9.
7(4
.40)
350
13.2
(5.9
9)12
.9(5
.85)
12.5
(5.6
7)1/
16(1
.6)
250
6.5
(2.9
5)6.
4(2
.90)
6.2
(2.8
1)27
57.
7(3
.49)
7.6
(3.4
5)7.
3(3
.31)
300
9.0
(4.0
8)8.
8(3
.99)
8.5
(3.8
6)35
011
.3(5
.13)
11.0
(4.9
9)10
.7(4
.85)
400
14.0
(6.3
5)13
.7(6
.21)
13.3
(6.0
3)45
017
.4(7
.89)
17.1
(7.7
6)16
.5(7
.48)
*Use
this
figu
re a
s th
e de
posi
tion
effic
ienc
y in
the
wel
d m
etal
cos
t per
lb. (
kg) c
alcu
latio
ns.
GEN-26110_03.p65 7/10/01, 4:01 PM20
4-1
ESAB HQ Aluminum (Al) TIG & MIGWiresSection 4
DESCRIPTION PAGE
Aluminum Rods & Wires for TIG &MIG Welding ...................................................4-2ESAB Aluminum Rod & Wire Analysis .................. 4-3
Standard Diameters & Packages ................... 4-4Aluminum Alloy Data ....................................... 4-5Aluminum Rod & Wire Selection Guide ........ 4-18Additional Alloys Available for MIG/TIG ....... 4-18
GEN-26110_04.p65 7/10/01, 4:01 PM1
4-2
ESAB HQ Aluminum (Al) TIG & MIGWiresAluminum Rods and Wires for TIGand MIG Welding
ESAB aluminum wires and rods are produced using themost advanced techniques of winding and packaging.The designation “HQ” means High Quality. These arewires giving consistently superior aluminum weld quality— wires which make it much easier to maintain desiredproduction.• For most weldable cast and wrought aluminum alloys• Easy-to-hold round cross sections• Proprietary final cleaning process minimizes
potential for weld porosity• Shaving process on HQ products means good feed-
ability, arc stability, and uniform weld penetration• Continuous casting process insures homogeneous wire
chemistry and gives consistent weld results• Manufactured in the U.S.A.
GEN-26110_04.p65 7/10/01, 4:01 PM2
4-3
ES
AB
Alu
min
um W
ire
and
Rod
Ana
lyse
sM
axim
um A
llow
able
% (B
alan
ce A
lum
inum
)(1)
AW
S A
5.10
Cla
ssFe
&Si
FeM
nS
iC
rM
gC
uZn
TiB
e
1100
HQ
(2)
ER11
000.
95—
0.05
——
—0.
05-
0.10
—0.
0008
0.20
1188
HQ
(2,3
)ER
1188
—0.
060.
010.
06—
0.01
0.00
50.
030.
010.
0008
(Oth
er e
lem
ents
incl
ude
Gal
lium
- 0.
03%
and
Van
adiu
m -
0.05
%)
4043
HQ
(2)
ER40
43—
0.80
0.05
4.5-
—0.
050.
300.
100.
200.
0008
6.00
4047
HQ
(2)
ER40
47—
0.80
0.15
11.0
-—
0.10
0.30
0.20
—0.
0008
13.0
5183
HQ
(2)
ER51
83—
0.40
0.50
-0.
400.
05-
4.3-
0.10
0.25
0.15
0.00
081.
00.
255.
253
56H
Q(2
)ER
5356
—0.
400.
05-
0.25
0.05
-4.
5-0.
100.
100.
06-
0.00
080.
200.
205.
50.
2055
54H
Q(2
)ER
5554
—0.
400.
50-
0.25
0.05
-2.
4-0.
100.
250.
05-
0.00
081.
00.
203.
00.
2055
56H
Q(2
)ER
5556
—0.
400.
50-
0.25
0.05
-4.
7-0.
100.
250.
05-
0.00
081.
00.
205.
50.
2056
54H
Q(2
)ER
5654
0.45
—0.
01—
0.15
-3.
1-0.
050.
200.
05-
0.00
080.
353.
90.
15
Not
es:
1.S
ingl
e va
lues
sho
wn
are
max
imum
per
cent
ages
.2.
All
HQ
spo
oled
wire
is ro
und;
HQ
rods
are
flat
.3.
Oth
er e
lem
ents
incl
ude
Gal
lium
- 0.
03%
, and
Van
adiu
m -
0.05
%
GEN-26110_04.p65 7/10/01, 4:01 PM3
4-4
Standard Diameters and PackageOptions
GMAW: +
030" (0.8 mm) x 1 & 14# (0.45 & 6.4 kg) spl035" (0.9 mm) x 1 & 16# (0.45 & 7.3 kg) spl.040" (1.0 mm) x 1& 16# (0.45 & 7.3 kg) spl3/64" (1.2 mm) x 1, 16 & 20#* (0.45, 7.3 & 9.1 kg) spl1/16" (1.6 mm) x 1, 16 & 20#* (0.45, 7.3 & 9.1 kg) spl3/32" (2.4 mm) x 1 & 16# (0.45 & 7.3 kg) spl
* 20# (9.1 kg) spools are available in 4043 & 5356 alloys.Contact Customer Service for further information.
+ 167# (75.7 kg) molded plastic reels are available in spe-cific alloys. Contact Customer Service for further information.
GTAW: ++
1/16" (1.6 mm) x 36" (914 mm) lengths x 10 lbs (4.5 kg)3/32" (2.4 mm) x 36" (914 mm) lengths x 10 lbs (4.5 kg)1/8" (3.2 mm) x 36" (914 mm) lengths x 10 lbs (4.5 kg)5/32" (4.0 mm) x 36" (914 mm) lengths x 10 lbs (4.5 kg)3/16" (4.8 mm) x 36" (914 mm) lengths x 10 lbs (4.5 kg)
++ Cut Lengths are packed in a 60# (27.2 kg) master carton.Smaller weight packages are available. Contact CustomerService for further information.
All TIG Rod is continuously embossed along the entire lengthof the electrode.
GEN-26110_04.p65 7/10/01, 4:01 PM4
4-5
AWS Class: E1100, ER1100
Code and Specification Data:ANSI/AWS A5.10 (ER & R), ASTM B316,QQ-A-430, AMS 4102
Description:Alloy 1100 is highly resistant to chemical attack andweathering. It is a relatively soft alloy that is very formableand used extensively in thin gauge and foil products. Ithas good welding characteristics and it is also used as afiller alloy for welding purposes. A desirable characteris-tic of the alloy is the bright finish obtained by anodizing.
Typical Mechanical PropertiesUTS UYS %E Shear
Temper (KSI) (KSI) (2 in.) BHN (KSI)-0 13.0 5.0 35 23 9
-H12 16.0 15.0 12 28 10-H14 18.0 17.0 9 32 11-H16 21.0 20.0 6 38 12-H18 24.0 22.0 5 44 13
Chemistry (Min. 99% pure Aluminum) OthersSi Fe Cu Mn Mg Cr Zn Ti Each Total
* * .05-0.20 0.05 - - 0.10 - 0.05 0.15
Note: Single values are maximum unless otherwise noted.
Typical Bend Radii - 90° Cold BendsThickness
.062" .125" .187" .250" .375" .500"
-H12 0 1/2T 1T 1T 1-1/2T 2T-H18 1T 1-1/2T 2-1/2T 3T 4T 4-1/2T
Typical Thermal TreatmentMetal Temperature Temper
Anneal Practice 650°F -0
Welding Approvals• Canadian Welding Bureau
Additional Aluminum MIG & TIG Wires listed on page 4-18
Aluminum Alloy DataESAB 1100HQ
GEN-26110_04.p65 7/10/01, 4:01 PM5
4-6
AWS Class: E4043, ER4043
Code and Specification Data:ANSI/AWS A5.10 (ER & R), AMS 4190
Description:Alloy 4043 is one of the oldest and most widely usedwelding and brazing alloys. ESAB 4043 can be classifiedas a general purpose type filler alloy. The silicon additionsresult in improved fluidity (wetting action) to make thealloy a preferred choice by welders. The alloy is lesssensitive to weld cracking and produces brighter, almostsmut free welds.
Typical Mechanical PropertiesBase Alloy Postweld Heat-Treated Properties As Welded and Aged1
UTS UYS E(%) UTS UYS E (%) UTS UYS E(%)Base Alloy (ksi) (ksi) (ksi) (ksi) (ksi) (ksi)2014-T6 70 60 13 34 28 4 50 --- 26061-T4 35 21 22 27 18 8 35 --- 82
6061-T6 45 40 12 27 18 8 44 40 56063-T4 25 22 22 20 10 12 30 --- 13
(1) Requires sufficient dilution of base metal into weld pool for heat treatand/or age response.
(2) Postweld aged only.
ChemistrySi Fe Cu Mn Mg Cr Zn Ti Be Each Total Al
4.5-6.00.8 0.30 0.05 0.05 ---- 0.10 0.20 0.0008 0.05 0.15 REM
Note: Single values are maximum unless otherwise noted.
Welding Approvals• Canadian Welding Bureau
Additional Aluminum MIG & TIG Wires listed on page 4-18
Aluminum Alloy DataESAB 4043HQ
GEN-26110_04.p65 7/10/01, 4:01 PM6
4-7
Base
Mat
eria
lW
ireG
asC
onsu
mpt
ion
Wire
Dia
.R
ange
Thic
knes
sS
ugge
sted
Feed
Flow
100
ft of
Wel
dIn
ches
Am
psV
olts
Inch
esA
mps
Vol
tsIP
MC
FH
Lbs
0.03
060
-170
13-2
40.
062
9022
260
251.
50.
094
110
2332
01.
80.
125
130
2338
02
0.18
715
024
430
40.
250
175
2451
06
0.03
570
-180
15-2
60.
062
9023
250
351.
50.
125
130
2436
02
0.25
017
025
470
63/
6414
0-26
020
-29
0.09
411
025
215
451.
80.
125
150
2629
02
0.25
019
026
370
60.
375
220
2743
016
1/16
190-
350
25-3
00.
250
200
2619
055
60.
375
230
2721
516
0.50
026
028
240
300.
750
280
2926
150
1.00
030
030
280
105
3/32
280-
400
26-3
10.
500
280
2817
065
300.
750
290
2917
550
>1.0
0030
030
180
105+
NO
TE:
Par
amet
ers
base
d on
flat
pos
ition
, gro
ove
join
t, ba
ckin
g st
rip, a
nd 1
00%
Arg
on g
as.
Typi
cal W
eldi
ng P
aram
eter
s - E
SAB
4043
HQ
GEN-26110_04.p65 7/10/01, 4:01 PM7
4-8
AWS Class: E4047, ER4047
Code and Specification Data:ANSI/AWS A5.10 (ER & R), AMS 4190
Description:Alloy 4047 was originally developed as a brazing alloy(BAISi-4) or (718) to take advantage of its low meltingpoint and narrow freezing range. In addition, it has ahigher silicon content than 4043, which provides forincreased fluidity and reduced shrinkage. The alloyproduces bright and almost smut free welds. Hot crackingis significantly reduced when 4047 is used as a filler alloy.The alloy may be used in applications of sustainedelevated temperatures.
Typical Mechanical Properties*Base Alloy Postweld Heat-Treated Properties As Welded and Aged1
UTS UYS E(%) UTS UYS E (%) UTS UYS E(%)Base Alloy (ksi) (ksi) (in 2") (ksi) (ksi) (in 2") (ksi) (ksi) (in 2")2014-T6 70 60 13 34 28 4 50 --- 26061-T4 35 21 22 27 18 8 352 --- 86061-T6 45 40 12 27 18 8 44 40 56063-T4 25 22 22 20 10 12 30 --- 13
(1) Requires sufficient dilution of base metal into weld pool for heat treatand/or age response.
(2) Postweld aged only.* Alloys 4043 and 4047 are considered the same for properties per AWS
D1.2 Structural Welding Code.
ChemistrySi Fe Cu Mn Mg Cr Zn Ti Be Each Total Al
11.0-13.0 0.8 0.3 0.15 0.1 ---- 0.2 --- 0.0008 0.05 0.15 REM
Note: Single values are maximum unless otherwise noted.
Welding Approvals• Canadian Welding Bureau
Additional Aluminum MIG & TIG Wires listed on page 4-18
Aluminum Alloy DataESAB 4047HQ
GEN-26110_04.p65 7/10/01, 4:01 PM8
4-9
Base
Mat
eria
lW
ireG
asC
onsu
mpt
ion
Wire
Dia
.R
ange
Thic
knes
sS
ugge
sted
Feed
Flow
100
ft of
Wel
dIn
ches
Am
psV
olts
Inch
esA
mps
Vol
tsIP
MC
FH
Lbs
0.03
060
-170
13-2
40.
062
9022
260
251.
50.
094
110
2332
01.
80.
125
130
2338
02
0.18
715
024
430
40.
250
175
2451
06
0.03
570
-180
15-2
60.
062
9023
250
351.
50.
125
130
2436
02
0.25
017
025
470
63/
6414
0-26
020
-29
0.09
411
025
215
451.
80.
125
150
2629
02
0.25
019
026
370
60.
375
220
2743
016
1/16
190-
350
25-3
00.
250
200
2619
055
60.
375
230
2721
516
0.50
026
028
240
300.
750
280
2926
150
1.00
030
030
280
105
3/32
280-
400
26-3
10.
500
280
2817
065
300.
750
290
2917
550
>1.0
0030
030
180
105+
NO
TE:
Par
amet
ers
base
d on
flat
pos
ition
, gro
ove
join
t, ba
ckin
g st
rip, a
nd 1
00%
Arg
on g
as.
Typi
cal W
eldi
ng P
aram
eter
s - E
SAB
4047
HQ
GEN-26110_04.p65 7/10/01, 4:01 PM9
4-10
AWS Class: E5183, ER5183
Code and Specification Data:ANSI/AWS A5.10 (ER & R)
Description:Alloy 5183 was originally developed in 1957 to providethe highest strengths possible in the as-welded conditionof Alloy 5083 and other similar high magnesium alloys.The more common filler alloy 5356 will typically fail tomeet the as-welded tensile specification requirements ofalloy 5083.
The alloy is typically utilized in marine and structuralapplications where high strengths, high fracture tough-ness for impact resistance, and exposure to corrosiveelements are important. The alloy is not recommended forelevated temperature applications due to its susceptibilityto stress corrosion cracking.
Typical Mechanical PropertiesBase Alloy Properties As Welded
UTS UYS E(%) UTS UYS E (%)Base Alloy (ksi) (ksi) (in 2") (ksi) (ksi) (in 2")5083-0 42 21 22 40 18 167039-T61 60 50 14 47 32 147039-T64 65 55 13 45 26 12
ChemistrySi Fe Cu Mn Mg Cr Zn Ti Be Each Total Al
.40 .40 .10 .5-1.0 4.3-5.2 .05-.25 .25 .15 .0008 .05 .15 REM
Note: Single values are maximum unless otherwise noted.
Welding Approvals• American Bureau of Shipping • Det Norske Veritas• Lloyd's Register of Shipping • Canadian Welding Bureau• Korean Register of Shipping
Additional Aluminum MIG & TIG Wires listed on page 4-18
Aluminum Alloy DataESAB 5183HQ
GEN-26110_04.p65 7/10/01, 4:01 PM10
4-11
Base
Mat
eria
lW
ireG
asC
onsu
mpt
ion
Wire
Dia
.R
ange
Thic
knes
sS
ugge
sted
Feed
Flow
100
ft of
Wel
dIn
ches
Am
psV
olts
Inch
esA
mps
Vol
tsIP
MC
FH
Lbs
0.03
060
-170
13-2
40.
062
9021
350
351.
50.
094
100
2256
01.
80.
125
120
2267
02
0.18
714
023
780
40.
035
70-1
8015
-26
0.06
210
021
350
351.
50.
125
130
2242
02
0.25
017
023
640
63/
6414
0-26
020
-29
0.09
410
022
150
451.
80.
125
150
2322
02
0.25
019
024
320
60.
375
220
2540
016
1/16
190-
350
25-3
00.
250
200
2320
055
60.
375
230
2422
016
0.50
026
026
270
300.
750
280
2730
050
1.00
030
028
320
105
3/32
280-
400
26-3
1>1
.000
350
3018
060
105+
NO
TE:
Par
amet
ers
base
d on
flat
pos
ition
, gro
ove
join
t, ba
ckin
g st
rip, a
nd 1
00%
Arg
on g
as.
Typi
cal W
eldi
ng P
aram
eter
s - E
SAB
5183
HQ
GEN-26110_04.p65 7/10/01, 4:01 PM11
4-12
AWS Class: E5356, ER5356
Code and Specification Data: ANSI/AWS A5.10 (ER & R)
Description:A characteristic of the 5XXX Series alloys is their suscep-tibility to stress corrosion cracking when the weld poolchemistry is greater than 3% magnesium and there isexposure to prolonged temperatures in excess of 150°F.Special alloys and tempers are often required to over-come this problem. Contact ESAB for assistance in alloyand temper selection when elevated temperature serviceis a concern.
Typical Mechanical PropertiesBase Alloy
Properties As WeldedUTS UYS E(%) UTS UYS E (%)
Base Alloy (ksi) (ksi) (in 2") (ksi) (ksi) (in 2")6061-T6, -T651 45 40 12 30 19 116063-T6 35 31 12 20 12 127005-T6, -T63 54 46 12 46 30 107039-T64 65 55 13 44 25 13
ChemistrySi Fe Cu Mn Mg Cr Zn Ti Be Each Total Al
.25 .40 .1 .05-.2 4.5-5.5 .05-.2 .1 .06-.2 .0008 .05 .15 REM
Note: Single values are maximum unless otherwise noted.
Welding Approvals• American Bureau of Shipping • Det Norske Veritas• Lloyd's Register of Shipping • Canadian Welding Bureau• Korean Register of Shipping
Additional Aluminum MIG & TIG Wires listed on page 4-18
Aluminum Alloy DataESAB 5356HQ
GEN-26110_04.p65 7/10/01, 4:01 PM12
4-13
Base
Mat
eria
lW
ireG
asC
onsu
mpt
ion
Wire
Dia
.R
ange
Thic
knes
sS
ugge
sted
Feed
Flow
100
ft of
Wel
dIn
ches
Am
psV
olts
Inch
esA
mps
Vol
tsIP
MC
FH
Lbs
0.03
060
-170
13-2
40.
062
9021
350
351.
50.
094
100
2256
01.
80.
125
120
2267
02
0.18
714
023
780
40.
035
70-1
8015
-26
0.06
210
021
350
351.
50.
125
130
2242
02
0.25
017
023
640
63/
6414
0-26
020
-29
0.09
410
022
150
451.
80.
125
150
2322
02
0.25
019
024
320
60.
375
220
2540
016
1/16
190-
350
25-3
00.
250
200
2320
055
60.
375
230
2422
016
0.50
026
026
270
300.
750
280
2730
050
1.00
030
028
320
105
3/32
280-
400
26-3
1>1
.000
350
3018
060
105+
NO
TE:
Par
amet
ers
base
d on
flat
pos
ition
, gro
ove
join
t, ba
ckin
g st
rip, a
nd 1
00%
Arg
on g
as.
Typi
cal W
eldi
ng P
aram
eter
s - E
SAB
5356
HQ
GEN-26110_04.p65 7/10/01, 4:01 PM13
4-14
AWS Class: E5554, ER5554
Code and Specification Data:ANSI/AWS A5.10
Description:Alloy 5554 was developed as a filler alloy, primarily forAlloy 5454 that is widely used in the manufacture ofchemical storage tanks, and in particular, those that maybe subjected to temperatures in excess of 150°F. Thiscombination of alloys does not become sensitive to stresscorrosion cracking (SCC) at elevated temperatures.
Typical Mechanical PropertiesBase Alloy
Properties As WeldedUTS UYS E(%) UTS UYS E (%)
Base Alloy (ksi) (ksi) (in 2") (ksi) (ksi) (in 2")5454-0 36 17 22 35 16 17
ChemistrySi Fe Cu Mn Mg Cr Zn Ti Be Each Total Al
.25 .40 .1 .50-1.0 2.4-3.0 .05-.2 .25 .05-.2 .0008 .05 .15 REM
Note: Single values are maximum unless otherwise noted.
Welding Approvals• Canadian Welding Bureau
Additional Aluminum MIG & TIG Wires listed on page 4-18
Aluminum Alloy DataESAB 5554HQ
GEN-26110_04.p65 7/10/01, 4:01 PM14
4-15
Typi
cal W
eldi
ng P
aram
eter
s - E
SAB
5554
HQBa
se M
ater
ial
Wire
Gas
Con
sum
ptio
nW
ire D
ia.
Ran
geTh
ickn
ess
Sug
gest
edFe
edFl
ow10
0 ft
of W
eld
Inch
esA
mps
Vol
tsIn
ches
Am
psV
olts
IPM
CF
HLb
s0.
030
60-1
7013
-24
0.06
290
2135
035
1.5
0.09
410
022
560
1.8
0.12
512
022
670
20.
187
140
2378
04
0.03
570
-180
15-2
60.
062
100
2135
035
1.5
0.12
513
022
420
20.
250
170
2364
06
3/64
140-
260
20-2
90.
094
100
2215
045
1.8
0.12
515
023
220
20.
250
190
2432
06
0.37
522
025
400
161/
1619
0-35
025
-30
0.25
020
023
200
556
0.37
523
024
220
160.
500
260
2627
030
0.75
028
027
300
501.
000
300
2832
010
53/
3228
0-40
026
-31
>1.0
0035
030
180
6010
5+N
OTE
: P
aram
eter
s ba
sed
on fl
at p
ositi
on, g
roov
e jo
int,
back
ing
strip
, and
100
% A
rgon
gas
.
GEN-26110_04.p65 7/10/01, 4:01 PM15
4-16
AWS Class: E5556, ER5556
Code and Specification Data:ANSI/AWS A5.10 (ER & R)
Description:Alloy 5556 was first utilized in 1956. It develops thehighest as-welded strength in fillet welds and it is nearlydouble that of 4043.
The 5XXX series of alloys offer an excellent combinationof corrosion resistance, strength, toughness, workability,and weldability. As a result, they are used in a widevariety of applications. A characteristic of this series ofalloys, however is their susceptibility to stress corrosioncracking when the weld pool chemistry is greater than 3%magnesium and there is exposure to prolonged tempera-tures in excess of 150°F. Special alloys and tempers areoften required to overcome this problem. Contact ESABfor assistance in alloy/temper selection
Typical Mechanical PropertiesBase Alloy
Properties As WeldedUTS UYS E(%) UTS UYS E (%)
Base Alloy (ksi) (ksi) (in 2") (ksi) (ksi) (in 2")5456-H112 46 24 22 45 23 14
ChemistrySi Fe Cu Mn Mg Cr Zn Ti Be Each Total Al.25 .4 .1 .5-1.0 4.7-5.5 .05-.2 .25 .05-.2 .0008 .05 .15 REM
Note: Single values are maximum unless otherwise noted.
Welding Approvals• American Bureau of Shipping • Det Norske Veritas• Lloyd's Register of Shipping • Canadian Welding Bureau
Additional Aluminum MIG & TIG Wires listed on page 4-18
Aluminum Alloy DataESAB 5556HQ
GEN-26110_04.p65 7/10/01, 4:01 PM16
4-17
Typi
cal W
eldi
ng P
aram
eter
s - E
SAB
5556
HQBa
se M
ater
ial
Wire
Gas
Con
sum
ptio
nW
ire D
ia.
Ran
geTh
ickn
ess
Sug
gest
edFe
edFl
ow10
0 ft
of W
eld
Inch
esA
mps
Vol
tsIn
ches
Am
psV
olts
IPM
CF
HLb
s0.
030
60-1
7013
-24
0.06
290
2135
035
1.5
0.09
410
022
560
1.8
0.12
512
022
670
20.
187
140
2378
04
0.03
570
-180
15-2
60.
062
100
2135
035
1.5
0.12
513
022
420
20.
250
170
2364
06
3/64
140-
260
20-2
90.
094
100
2215
045
1.8
0.12
515
023
220
20.
250
190
2432
06
0.37
522
025
400
161/
1619
0-35
025
-30
0.25
020
023
200
556
0.37
523
024
220
160.
500
260
2627
030
0.75
028
027
300
501.
000
300
2832
010
53/
3228
0-40
026
-31
>1.0
0035
030
180
6010
5+N
OTE
: P
aram
eter
s ba
sed
on fl
at p
ositi
on, g
roov
e jo
int,
back
ing
strip
, and
100
% A
rgon
gas
.
GEN-26110_04.p65 7/10/01, 4:01 PM17
4-18
Alu
min
um R
od a
nd W
ire
Sele
ctio
n G
uide
Indi
cate
s be
st c
hoic
e of
ESA
B a
lloy
for t
he b
ase
met
als
in th
e le
ft co
lum
nFo
r Bes
tFo
r Max
imum
For L
east
Base
Met
alFo
r Max
imum
For M
axim
umC
olor
Mat
chSa
lt W
ater
Cra
ckin
gTo
Be
Wel
ded
Stre
ngth
Duc
tility
Afte
r Ano
dizi
ngC
orro
sion
Res
ista
nce
Tend
ency
1100
ESAB
404
3ES
AB 1
100
ESAB
110
0ES
AB 1
100
ESAB
404
360
61ES
AB 5
356
ESAB
535
6ES
AB 5
356
ESAB
404
3ES
AB 4
043
6063
ESAB
535
6ES
AB 5
356
ESAB
535
6ES
AB 4
043
ESAB
404
330
03ES
AB 4
043
ESAB
110
0ES
AB 1
100
ESAB
110
0ES
AB 4
043
5052
ESAB
535
6ES
AB 5
654
ESAB
535
6ES
AB 5
356
ESAB
535
650
86ES
AB 5
356
ESAB
535
6ES
AB 5
356
ESAB
535
6ES
AB 5
356
5083
ESAB
518
3ES
AB 5
356
ESAB
518
3ES
AB 5
183
ESAB
535
654
54ES
AB 5
356
ESAB
535
6ES
AB 5
356
ESAB
535
6ES
AB 5
356
5456
ESAB
555
6ES
AB 5
356
ESAB
555
6ES
AB 5
556
ESAB
535
6
Add
itio
nal A
lum
inum
Allo
ys a
vaila
ble
for
MIG
& T
IG11
88(E
1188
, ER
1188
)11
99(E
1199
, ER
1199
)20
6.0
(E20
6.0,
ER
206.
0)23
19(E
2319
, ER
2319
)35
7.0
(E35
7.0,
ER
357.
0)40
08(E
4008
, ER
4008
)40
09(E
4009
, ER
4009
)41
45(E
4145
, ER
4145
)46
43(E
4643
, ER
4643
)56
54(E
5654
, ER
5654
)
GEN-26110_04.p65 7/10/01, 4:01 PM18
5-1
CORED WIRE PRODUCTSSection 5
DESCRIPTION PAGE
Dual Shield and Coreshield Flux Cored Wire .......... 5-2AWS Specification A5.20 ....................................... 5-3AWS Specification A5.29 ....................................... 5-4Mild Steel Cored Wires .......................................... 5-5
Additional Dual Shield Mild Steel Wires ...... 5-18Carbon-Molybdenum (C-Mo) Wires .................... 5-19Chromium-Molybdenum (Cr-Mo) Wires ............. 5-20Nickel (Ni) Steel Wires ........................................ 5-2480 ksi (552 MPa) Tensile Wires .......................... 5-2990 ksi (621 MPa) Tensile Wires .......................... 5-31100 ksi (690 MPa) Tensile Wires ........................ 5-33110 ksi (759 MPa) Tensile Wires ........................ 5-34Manganese-Molybdenum (Mn-Mo) Wire ............. 5-37
Additional Dual Shield Low Alloy Wires ...... 5-38Dual Shield Rutile & Rutile Basic Slag Welding Data .............. 5-39Suggested Welding Parameters - Dual Shield . 5-41Dual Shield Basic Slag Welding Data ......... 5-42Length/Unit Weight - Dual Shield Wires ...... 5-43
Self Shielded Cored Wires — Coreshield .............. 5-44Coreshield Welding Data .................................... 5-53
Gas Shielded Metal Cored Wires — Coreweld ....... 5-60AWS Specification A5.18 Composite Wires ....... 5-60AWS Specification A5.28 Composite Wires ....... 5-60Metal Cored Wires ............................................... 5-61
Coreweld Welding Data ............................... 5-69Suggested Welding Parameters - Coreweld . 5-70Flux Cored Wire Agency Approvals .............. 5-71
GEN-26110_05.p65 7/10/01, 4:01 PM1
5-2
DUAL SHIELD ® Flux Cored Wires
Dual Shield —Gas Shielded Flux Cored WiresDual Shield wires are of a tubular construction and gaintheir name by the fact that the arc is shielded from theatmosphere by both the shielding gas and the protectiveslag which forms over the weld as the wire is consumed.The required shielding gas may be either straight CO2 ora mixture of argon and CO2 as specified in the listingsthat follow. Dual Shield wires are available for welding awide variety of carbon and low alloy steels.
GEN-26110_05.p65 7/10/01, 4:01 PM2
5-3
AWS
Fille
r M
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Spe
cific
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5.20
Car
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Stee
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for F
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Cor
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Shi
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EXXT
-1 (M
ultip
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CO
2D
CEP
20 f
t.-lb
s. @
0°F
EXXT
-1M
(Mul
tiple
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s)Ar
/CO
2D
CEP
20 f
t.-lb
s. @
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EXXT
-2 (S
ingl
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CO
2D
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Ar/C
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DC
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one
EXXT
-3 (S
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ss)
Non
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CEP
Non
eEX
XT-4
(Mul
tiple
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DC
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one
EXXT
-5(M
ultip
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CO
2D
CEP
/DC
EN(b
)20
ft.-
lbs.
@-2
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EXXT
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(Mul
tiple
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/CO
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/DC
EN(b
)20
ft.-
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EXXT
-6 (M
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Non
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20 f
t.-lb
s. @
-20°
FEX
XT-7
(Mul
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DC
EN
Non
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XT-8
(Mul
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20 f
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CO
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20 f
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FEX
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M (M
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Ar/C
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DC
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ft.-
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EXXT
-10
(Sin
gle-
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one
DC
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Non
eEX
XT-1
1 (M
ultip
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Non
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one
EXXT
-12
(Mul
tiple
-pas
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O2
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ft.-
lbs.
@-2
0°F
EXXT
-12M
(Mul
tiple
-pas
s)Ar
/CO
2D
CEP
20 f
t.-lb
s. @
-20°
FEX
XT-1
3 (S
ingl
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ss)
Non
eD
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NN
one
EXXT
-14
(Sin
gle-
pass
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DC
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Non
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(Mul
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-pas
s)N
one
(c)
Non
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XT-G
S (S
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ss)
Non
e(c
)N
one
GEN-26110_05.p65 7/10/01, 4:01 PM3
5-4
AWS
Fille
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Spe
cific
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5.29
Low
Allo
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lat &
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Tubu
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AWS
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ssifi
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tern
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hiel
ding
Cur
rent
and
Pol
arity
EXXT
1-X
(mul
tiple
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EPEX
XT4-
X (m
ultip
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ass)
Non
eDC
EPEX
XT5-
X (m
ultip
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ass)
CO2
DCEP
EXXT
8-X
(mul
tiple
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GEN-26110_05.p65 7/10/01, 4:01 PM4
5-5
Mild Steel Cored WiresDual Shield R-70 UltraAWS Class E70T-9/E70T-9M
Code and Specification Data:AWS A5.20, ASME SFA 5.20, CSA W48.5Military - MIL-E-24403/1, MIL 70T-1C
Description:Dual Shield R-70 Ultra is a low fuming flux cored wirewith a balanced chemistry that allows for a greatertolerance of mill scale and surface oxides than isnormally associated with an E70T-1 class of wire. The“Ultra” series produces smoother arc characteristics andlower welding fumes than other non-ultra types. Notchtoughness in the as welded condition is also improvedwith this wire. Bead contour is flat to slightly convex andslag coverage is complete.Dual Shield R-70 Ultra is a flux cored wire for single ormultipass applications on low or medium carbon steels.It is intended for use in the flat and horizontal positionswith CO2 shielding only. Areas of application includerailcar, heavy equipment, and general fabrication.
Shielding Gas: CO2
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 70,000 (483)Tensile Strength, psi (MPa) 80,000 (555)% Elongation in 2" (51 mm) 25% Reduction in Area 55
Typical Charpy V-Notch Impact PropertiesAs Welded
Testing Temp. ft.-lbs. (J)
0°F (-18°C) 37 (50)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Ni
0.020 1.36 0.51 0.011 0.012 0.39
Standard Diameters.045" (1.2 mm), 1/16" (1.6 mm), 5/64" (2.0 mm), 3/32" (2.4 mm)
Recommended Welding Parameters pages 5-39 to 5-43
Additional Approvals pages 5-71 & 5-72
GEN-26110_05.p65 7/10/01, 4:01 PM5
5-6
Mild Steel Cored WiresDual Shield 111-ACAWS Class E70T-1
Code and Specification Data:AWS A5.20, ASME SFA 5.20
Description:Dual Shield 111-AC is a flux cored wire for single ormultipass operation on mild steel and on some low alloysteels. Dual Shield 111-AC has proven capabilities infabrication of bridges, pressure vessels, earth movingequipment, construction, shipbuilding and weldingpertaining to structural and nuclear codes. There is verylittle spatter when welded with balanced voltage andamperage. The thin slag cover removes easily. The weldbead appearance and easy operation make this wire anideal choice for general fabrication and repair.The steel should be reasonably clean and, for greaterefficiency, the work should be positioned so that thewelding is performed in the flat position.
Shielding Gas: CO2
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 72,000 (497)Tensile Strength, psi (MPa) 84,100 (580)% Elongation in 2" (51 mm) 26% Reduction in Area 59
Typical Charpy V-Notch Impact PropertiesAs Welded
Testing Temp. ft.-lbs. (J)
70°F (21°C) 64 (87)0°F (-18°C) 42 (57)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S
0.07 1.45 0.48 0.017 0.012
Standard Diameters1/16" (1.6 mm), 5/64" (2.0 mm), 3/32" (2.4 mm), 7/64" (2.8 mm)
Recommended Welding Parameters pages 5-39 to 5-43
Additional Approvals pages 5-71 & 5-72
GEN-26110_05.p65 7/10/01, 4:01 PM6
5-7
Mild Steel Cored WiresDual Shield 70 Ultra PlusAWS Class E71T-1M/E71T-9M
Code and Specification Data:AWS A5.20, ASME SFA 5.20
Description:Dual Shield 70 Ultra Plus is an all-position wire that isuniquely designed to provide high deposition, outstand-ing all position performance and a fume emission rateapproaching that of solid wires. It is optimized for usewith 90% Ar/10% CO2 shielding but works well withmixes ranging from 75% Ar/25% CO2 to 95% Ar/5% CO2.Among the outstanding features of Dual Shield 70 UltraPlus are a very wide operating window, very high out ofposition deposition rates (vertical up and overhead atover 12 lb/hr), and welds that are virtually spatter free.Dual Shield 70 Ultra Plus may be used in a variety ofapplications including railcar, automotive, heavy equip-ment, and general structural steel fabrication. It isespecially recommended in applications where reduc-tion of welding fume is a priority.
Shielding Gas: Ar/CO2 mixtures between 75-95% Ar
Typical Mechanical PropertiesAs Welded
95% Ar/ 90% Ar/ 75% Ar/5% CO2 10% CO2 25% CO2
Yield Strength, psi (MPa) 81,200(560) 75,500(521) 71,000(490)Tensile Strength, psi (MPa)84,200(581) 84,000(579) 81,000(558)% Elongation in 2” (51 mm) 26.0 27.0 27.0
Typical Charpy V-Notch Impact PropertiesAs Welded
95% Ar/ 90% Ar/ 75% Ar/5% CO2 10% CO2 25% CO2
Testing Temp. ft.-lbs. (J) ft.-lbs. (J) ft.-lbs. (J)
0°F (-18°C) 53 (72) 68 (92) 30 (41)-20°F (-29°C) 25 (34) 74 (100) 47 (64)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S
95% Ar/5% CO2 0.032 0.89 0.51 0.016 0.01290% Ar/10% CO2 0.026 1.10 0.60 0.015 0.01275% Ar/25% CO2 0.023 1.07 0.59 0.015 0.012
Standard Diameters.045” (1.2 mm), .052” (1.4 mm), 1/16” (1.6 mm)
Additional Dual Shield Mild Steel Wires page 5-18
GEN-26110_05.p65 7/10/01, 4:01 PM7
5-8
Mild Steel Cored WiresDual Shield FC-717AWS Class E71T-9/E71T-1M/E71T-9M
Code and Specification Data:AWS A5.20, ASME SFA 5.20, CSA W48.5
Description:Dual Shield FC-717 is an all-position flux cored wire. Theunique slag system makes it suitable for either 75%Argon/25% CO2 or CO2. The performance characteristicsproduce low spatter, smooth stable arc and flat to convexbead shape. The wide operating parameters make itsuitable for a variety of material thicknesses.Dual Shield FC-717 is designed to weld mild andmedium carbon steels. This wire is suitable for structuralsteel fabrication, storage tank construction, and earthmoving and material handling equipment.
Shielding Gas: CO2 or Argon/CO2 mixtures up to 75% Argon
Typical Mechanical PropertiesAs Welded
CO2 75% Ar/25% CO2
Yield Strength, psi (MPa) 73,000 (504) 76,500 (528)Tensile Strength, psi (MPa) 82,900 (572) 87,500 (604)% Elongation in 2" (51 mm) 27 27
Typical Charpy V-Notch Impact PropertiesAs Welded
CO2 75% Ar/25% CO2Testing Temp. ft.-lbs. (J) ft.-lbs. (J)
0°F (-18°C) 50 (68) 70 (95)-20°F (-29°C) 30 (41) 50 (68)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S
CO2 0.050 1.10 0.44 0.010 0.01575% Ar/25% CO2 0.055 1.10 0.55 0.010 0.015
Standard Diameters.045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)
Recommended Welding Parameters pages 5-39 to 5-43
Additional Approvals pages 5-71 & 5-72
GEN-26110_05.p65 7/10/01, 4:01 PM8
5-9
Dual Shield 7000AWS Class E71T-1/E71T-1M
Code and Specification Data:AWS A5.20, ASME SFA 5.20
Description:Dual Shield 7000, the industry’s first all-position fluxcored wire, combines excellent performance featureswith the ability to produce high quality welds. This wireproduces equal leg lengths on fillet welds with littlespatter. Since slag cover is complete and removal easy,cleaning time is reduced.Dual Shield 7000 is designed for welding mild andmedium-carbon steels. It can be used over normal rustand mill scale. A 75% Argon/25% CO2 shielding gasmixture improves arc characteristics in out-of-positionwork, provides increased wetting action and easier arccontrol.
Shielding Gas: CO2 or Argon/CO2 mixtures up to 75% Argon
Typical Mechanical PropertiesAs Welded
CO2 75% Ar/25% CO2
Yield Strength, psi (MPa) 78,000 (538) 86,000 (593)Tensile Strength, psi (MPa) 89,000 (614) 95,700 (660)% Elongation in 2" (51 mm) 26 25% Reduction of Area 67 68
Typical Charpy V-Notch Impact PropertiesAs Welded
CO2 75% Ar/25% CO2Testing Temp. ft.-lbs. (J) ft.-lbs. (J)
0°F (-18°C) 32 (43) 34 (46)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S
CO2 0.06 1.31 0.60 0.014 0.01675% Ar/25% CO2 0.06 1.47 0.75 0.014 0.016
Standard Diameters.035" (0.9 mm), .045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)
Additional Dual Shield Mild Steel Wires page 5-18
GEN-26110_05.p65 7/10/01, 4:01 PM9
5-10
Mild Steel Cored WiresDual Shield 7100 UltraAWS Class E71T-1/E71T-1M/E71T-9/E71T-9M
Code and Specification Data:AWS A5.20, ASME SFA 5.20, CSA W48.5
Description:Dual Shield 7100 Ultra is an all-position wire with auniquely balanced chemistry to provide greater deposi-tion and improved welding productivity. This product hasa wider range of operating parameters and produceslower welding fume than other E71T-1 flux cored wires.The low spatter levels and easy slag removal minimizespost weld cleanup.Dual Shield 7100 Ultra can be used with either CO2 or75% Ar/25% CO2. This versatility in gas selectionprovides the fabricator greater flexibility in choosing bothwire and gas. This all-position wire is extremely versatilefor a variety of applications including railcar and earthmoving equipment, as well as general structural steelfabrication.
Shielding Gas: CO2 or Argon/CO2 mixtures up to 75% Argon
Typical Mechanical PropertiesAs Welded
75% Ar/CO2 25% CO2
Yield Strength, psi (MPa) 78,000 (538) 85,000 (587)Tensile Strength, psi (MPa) 85,600 (591) 89,500 (618)% Elongation in 2" (51 mm) 26 26
Typical Charpy V-Notch Impact Properties75% Ar/
CO2 25% CO2
Testing Temp. ft.-lbs. (J) ft.-lbs. (J)
0°F (-18°C) 43 (58) 42 (57)-20°F (-29°C) 25 (34) 35 (47)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S
CO2 0.023 1.33 0.54 0.010 0.01375% Ar/25% CO2 0.036 1.62 0.66 0.010 0.012
Standard Diameters.035" (0.9 mm), .045" (1.2 mm), .052" (1.4 mm), 1/16” (1.6 mm)
Recommended Welding Parameters pages 5-39 to 5-43
Additional Approvals pages 5-71 & 5-72
GEN-26110_05.p65 7/10/01, 4:01 PM10
5-11
Dual Shield II 70 UltraAWS Class E71T-1/E71T-1M/E71T-12M
Code and Specification Data:AWS A5.20, ASME SFA 5.20, CSA W48.5Military - MIL-E-24403/1, MIL-71T-1-HYM
Description:Dual Shield II 70 Ultra is an all-position flux cored wirethat displays exceptional impact properties in both the aswelded and stress relieved conditions when used with75% Ar/25% CO2. The improved properties qualify thiswire to the Navy’s “HY” classification. The “Ultra” seriesproduces smoother arc characteristics and lowerwelding fumes.Dual Shield II 70 Ultra was developed to join low andmedium carbon steel. The Military classification allowsDual Shield II 70 Ultra to be used for attaching steels ofless than 80 ksi (552 MPa) yield to HY-80 and HY-100.Commercial applications include construction, ship-building, railcar, and heavy equipment industries. Weldmetal analysis is similar to an E7018 low hydrogenelectrode.
Shielding Gas: 75% Argon/25% CO2
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 72,300 (499)Tensile Strength, psi (MPa) 81,100 (560)% Elongation in 2" (51 mm) 29% Reduction in Area 75
Typical Charpy V-Notch Impact PropertiesAs Welded
Testing Temp. ft.-lbs. (J)
0°F (-18°C) 117 (159)-20°F (-29°C) 70 (95)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S
0.028 1.30 0.30 0.008 0.015
Standard Diameters.035" (0.9 mm), .045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)Available in a Hermetically Sealed Can & Vacuum Pac
Additional Dual Shield Mild Steel Wires page 5-18
GEN-26110_05.p65 7/10/01, 4:01 PM11
5-12
Mild Steel Cored WiresDual Shield II 71 UltraAWS Class E71T-12
Code and Specification Data:AWS A5.20, ASME SFA 5.20, CSA W48.5Military - MIL-E-24403/1, MIL-71T-1-HYC
Description:Dual Shield II 71 Ultra is an all-position flux cored wirethat displays exceptional impact properties in both the aswelded and stress relieved conditions when used withCO2. The improved properties qualify this wire to theNavy’s “HY” classification. The “Ultra” series producessmoother arc characteristics and lower welding fumes.Dual Shield II 71 Ultra was developed to join low andmedium carbon steel. The Military classification allowsDual Shield II 71 Ultra to be used for attaching steels ofless than 80 ksi (552 MPa) yield to HY-80 and HY-100.Commercial applications include construction, ship-building, railcar, and heavy equipment industries. Weldmetal analysis is similar to an E7018 low hydrogenelectrode.
Shielding Gas: CO2
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 71,500 (493)Tensile Strength, psi (MPa) 79,500 (549)% Elongation in 2" (51 mm) 28% Reduction in Area 77
Typical Charpy V-Notch Impact PropertiesAs Weldedft.-lbs. (J)
0°F (-18°C) 96 (130)-20°F (-29°C) 40 (54)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S
0.019 1.15 0.30 0.007 0.013
Standard Diameters.035" (0.9 mm), .045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)Available in a Hermetically Sealed Can & Vacuum Pac
Recommended Welding Parameters pages 5-39 to 5-43
Additional Approvals pages 5-71 & 5-72
Additional Dual Shield Mild Steel Wires page 5-18
GEN-26110_05.p65 7/10/01, 4:01 PM12
5-13
Mild Steel Cored WiresDual Shield II 70T-12H4AWS Class E71T-12MJH4
Code and Specification Data:AWS A5.20, ASME SFA 5.20
Description:Dual Shield II 70T-12H4 is the first of an entire series oflow hydrogen flux cored wires to be introduced by ESAB.Each of the new Dual Shield II H4 wires is an all-positionflux cored wire that provides excellent low temperaturetoughness in both the as welded and/or stress relievedconditions (as applicable) when used with 75% Ar/25%CO2. Each can produce diffusible hydrogen levels of <4mL/100g over a wide range of welding parameters.Dual Shield II 70T-12H4 also provides the smooth arcand low spatter levels characteristic of other Dual ShieldII wires.Dual Shield II 70T-12H4 can be used in construction,heavy equipment fabrication, offshore oil components,shipbuilding, and railcar. Weld metal analysis is similarto E7018 & E7018-1 low hydrogen covered electrodes.
Shielding Gas: 75% Argon/25% CO2
Typical Mechanical PropertiesStress Relieved
2 hrs.As Welded @1150°F (620°C)
Yield Strength, psi (MPa) 72,000 (496) 68,000 (469)Tensile Strength, psi (MPa) 80,000 (552) 80,000 (552)% Elongation in 2" (51 mm) 27 30% Reduction in Area 71 73
Typical Charpy V-Notch Impact Properties*Stress Relieved
2 hrs.As Welded @1150°F (620°C)
Testing Temp. ft.-lbs. (J) ft.-lbs. (J)
-20°F (-29°C) 79 (107) 76 (103)-40°F (-40°C) 62 (84) —
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S
0.027 1.08 0.33 0.016 0.008
Standard Diameters.045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)Packaged in Vacuum Pacs
GEN-26110_05.p65 7/10/01, 4:01 PM13
5-14
Mild Steel Cored WiresDual Shield SPAWS Class E70T-2
Code and Specification Data:AWS A5.20, ASME SFA 5.20
Description:Dual Shield SP is a flux cored single pass wire especiallydeveloped for welds of good contour and soundnessregardless of the surface condition of the steel. Because ofhigh manganese and silicon content, cracking may occuron multipass welding. The arc behavior is smooth withrelatively little spatter. The slag is self-releasing while theweld bead appearance is excellent. Horizontal fillet weldsusually have equal leg lengths. The presence of mill scaleor rust on the steel does not adversely affect the appear-ance or soundness of welds made with this product.However in the absence of mill scale or rust in the weldarea, the deoxidizing elements in the core become alloyingelements, and the tensile strength of the weld metal mayincrease to more than 100 ksi (689 MPa).
Shielding Gas: CO2
Typical Mechanical Properties*Transverse Tensile Strength: 86,000 psi (593 MPa) min.Longitudinal Bend Test: Meets Requirements*AWS single pass 1/4" (6.4 mm) plate test assembly
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S
0.06 1.38 1.20 0.010 0.012
Standard Diameters1/16" (1.6 mm), 5/64" (2.0 mm), 3/32" (2.4 mm)
Recommended Welding Parameters pages 5-39 to 5-43
Additional Approvals pages 5-71 & 5-72
GEN-26110_05.p65 7/10/01, 4:01 PM14
5-15
Mild Steel Cored WiDual Shield T-75AWS Class E70T-5J/E70T-5MJ
E71T-5J/E71T-5MJ
Code and Specification Data:AWS A5.20, ASME SFA 5.20Class E70T-5J/E70T-5MJ for 3/32” & 7/64” (2.4 & 2.8 mm)Class E71T-5J/E71T-5MJ for .045” & 1/16” (1.2 & 1.6 mm)Military - MIL-E-24403/1, MIL-70T-5C(M)
Description:Dual Shield T-75 is a flux cored wire designed for multiplepass welding producing excellent properties in both the aswelded and stress relieved conditions. Exceptional impacttoughness and low sensitivity to cracking make it an idealchoice for a variety of low and medium carbon steels. Thearc characteristics are globular, but can be improved withargon gas mixtures. The weld metal analysis is similar toan E7018 low hydrogen electrode.
Shielding Gas: CO2 for 3/32 & 7/64" (2.4 & 2.8 mm);75% Argon/25% CO2 for .045 & 1/16" (1.2 & 1.6 mm)
Typical Mechanical PropertiesStress-Relieved
As Welded As Welded 8 hrs. @CO2 75% Ar/25% CO2 1150°F (621°C)
psi (MPa) psi (MPa) CO2
Yield Strength, 67,000 (462) 73,000 (504) 62,000 (427)Tensile Strength, 79,000 (545) 84,700 (584) 78,500 (541)% Elongation in 2" 28 29 30 (51 mm)% Reduction of Area 65 66 70
Typical Charpy V-Notch Impact PropertiesStress Relieved
As Welded 8 hrs.As Welded 75% Ar/ @1150°F (621°C)
CO2 25% CO2 CO2Testing Temp. ft.-lbs. (J) ft.-lbs. (J) ft.-lbs. (J)
0°F (-18°C) 70 (95) 60 (81) — —-20°F (-29°C) 85 (115) 75 (102) 60 (81)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S
CO2 0.043 1.32 0.47 0.009 0.01975% Ar/25% CO2 0.066 1.35 0.48 0.013 0.016
Standard Diameters.045" (1.2 mm), 1/16" (1.6 mm), 3/32" (2.4 mm), 7/64" (2.8 mm)
GEN-26110_05.p65 7/10/01, 4:01 PM15
5-16
Mild Steel Cored WiresDual Shield T-5AWS Class E70T-5J/E70T-5MJ
E71T-5J/E71T-5MJ
Code and Specification Data:AWS A5.20, ASME SFA 5.20, CSA W48.5Class E70T-5J/E70T-5MJ for 3/32” (2.4 mm)Class E71T-5J/E71T-5MJ for .045 & 1/16" (1.2 & 1.6 mm)
Description:Dual Shield T-5 is a basic slag flux cored wire whichproduces crack resistant, highly ductile weld deposits.The small diameter wires, such as .045 & 1/16" (1.2 &1.6 mm) diameters can be used out-of-position. The arccharacteristics are globular but can be improved with theuse of argon mixtures.Dual Shield T-5 is especially recommended for mediumto heavy fabrication of a number of mild steels wheresuperior toughness and crack resistance are required. Itis a good choice for mild steel or when being joined toquenched and tempered low alloy high strength steels.The weld metal analysis is similar to an E7018 orE7018-1 low hydrogen electrode.
Shielding Gas: 75% Argon/25% CO2, 90% Argon/8% CO2/2% O2, or 100% CO2
Welding Procedure:This product should be run using a constant speed wirefeeder and a constant potential power source. DCEN(electrode negative) should be used when welding out-of-position. This reduces penetration and minimizes thesize of the puddle for optimum operator appeal. DCEP(electrode positive) should be used for flat and horizontalwelding. The result will improve weld quality and reduceweld metal deposit costs. Trimix is recommended forout-of-position welding; Argon/CO2 mixtures can beselected for least spatter and post weld clean up cost.
Typical Mechanical PropertiesStress-Relieved
2 hrs.As Welded @1150°F (621°C)
75% Ar/25% CO2 75% Ar/25% CO2
Yield Strength, psi (MPa) 68,000 (469) 52,000 (356)Tensile Strength, psi (MPa) 81,000 (560) 74,000 (508)% Elongation in 2" (51 mm) 31 34% Reduction of Area 71 76
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Mild Steel Cored WiDual Shield T-5 (cont’d.)Typical Charpy V-Notch Impact Properties
Stress-Relieved2 hrs.
As Welded @1150°F (621°C)75% Ar/25% CO2 75% Ar/25% CO2
Testing Temp. ft.-lbs. (J) ft.-lbs. (J)
70°F (20°C) 140 (190) 211 (286)0°F (-18°C) 96 (130) 174 (236)
-20°F (-29°C) 81 (110) 131 (178)-40°F (-40°C) 71 (96) 103 (140)-60°F (-51°C) 59 (80) 93 (126)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S
75% Ar/25% CO2 0.066 1.45 0.52 0.007 0.013
Standard Diameters.045" (1.2 mm), 1/16" (1.6 mm), 3/32" (2.4 mm)
Recommended Welding Parameters pages 5-39 to 5-43
Additional Approvals pages 5-71 & 5-72
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AdditionalDual Shield Mild Steel Wires*
Dual Shield Arc 70 (E70T-9/E70T-9M)Dual Shield Arc 71 (E71T-1)Dual Shield Arc 87 (E70T-1)Dual Shield 111A (E70T-1)Dual Shield 111HD (E70T-1)Dual Shield 111RB (E70T-1)Dual Shield T-62 (E70T-1)Dual Shield T-63 (E70T-2)Dual Shield 78 (E70T-1)Dual Shield 110 (E70T-2)
* Note: For technical information contact theMarketing Department
NOTES
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Carbon-Molybdenum (C-Mo) WiresDual Shield 7000-A1AWS Class E81T1-A1
Code and Specification Data:AWS A5.29, ASME SFA 5.29
Description:Dual Shield 7000-A1 is an all-position wire recom-mended for 1/2% Mo steels. It is used in the fabricationand erection of boilers, pressure piping and tubing andother pressure vessel applications.A 75% Ar/25% CO2 shielding gas mixture is recom-mended to improve arc characteristics, increase wettingaction, decrease penetration, and provide easier arccontrol for out-of-position welding. The weld metalanalysis is similar to an E7018-A1 low hydrogenelectrode.
Shielding Gas: CO2 or Argon mixtures up to 75% Argon
Typical Mechanical PropertiesStress-Relieved
1 hr.As Welded @1150°F (621°C)
CO2 CO2
Yield Strength, psi (MPa) 82,460 (569) 82,500 (569)Tensile Strength, psi (MPa) 92,000 (635) 93,500 (645)% Elongation in 2" (51 mm) 22 26% Reduction of Area 58 63
Typical Charpy V-Notch Impact PropertiesAs Welded
CO2Testing Temp. ft.-lbs. (J)
72°F (22°C) 43 (58)0°F (-18°C) 20 (27)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S Mo
CO2 0.061 0.69 0.41 0.011 0.019 0.48
Standard Diameters.045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)
Recommended Welding Parameters pages 5-39 to 5-43
Additional Approvals pages 5-71 & 5-72
Additional Low Alloy Wires listed on page 5-38
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Chromium-Molybdenum(Cr-Mo) WiresDual Shield 8000-B2AWS Class E81T1-B2
Code and Specification Data:AWS A5.29, ASME SFA 5.29
Description:Dual Shield 8000-B2 is an all-position flux cored wirewhich contains 1-1/4% Cr-1/2% Mo. The analysis is verysimilar to 88 CM, except 8000-B2 is for out-of-positionwelding. The weld metal analysis is similar to anE8018-B2 low hydrogen electrode.Dual Shield 8000-B2 wire is used for the welding of suchsteel as 1/2% Cr-1/2% Mo, 1% Cr-1/2% Mo, and 1-1/4%Cr-1/2% Mo. This wire is designed for single or multiplepass welding.
Shielding Gas: CO2 or Argon mixtures up to 75% Argon
Typical Mechanical PropertiesStress Relieved
1 hr.@1175°F (635°C)
CO2
Yield Strength, psi (MPa) 83,400 (575)Tensile Strength, psi (MPa) 95,400 (658)% Elongation in 2" (51 mm) 21% Reduction of Area 60
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S Cr Mo
CO2 0.06 0.65 0.52 0.011 0.012 1.37 0.55
Standard Diameters.045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)
Additional Low Alloy Wires listed on page 5-38
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Dual Shield 8000-B2LAWS Class E81T1-B2L
Code and Specification Data:AWS A5.29, ASME SFA 5.29
Description:Dual Shield 8000-B2L is an all-position flux cored wirefor low carbon grades of 1-1/4% Cr-1/2% Mo steels. Theweld metal analysis is similar to an E8018-B2L lowhydrogen electrode.
Shielding Gas: CO2 or Argon mixtures up to 75% Argon
Typical Mechanical PropertiesStress Relieved
1 hr.@1275°F (691°C)
CO2
Yield Strength, psi (MPa) 76,200 (526)Tensile Strength, psi (MPa) 87,700 (605)% Elongation in 2" (51 mm) 23
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S Cr Mo
CO2 0.024 0.60 0.44 0.012 0.018 1.20 0.52
Standard Diameters.045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)
Recommended Welding Parameters pages 5-39 to 5-43
Additional Approvals pages 5-71 & 5-72
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Chromium-Molybdenum(Cr-Mo) WiresDual Shield 9000-B3AWS Class E91T1-B3
Code and Specification Data:AWS A5.29, ASME SFA 5.29
Description:Dual Shield 9000-B3 is an all-position flux cored wirewhich contains 2-1/4% Cr-1% Mo. The analysis is verysimilar to 98 CM, except 9000-B3 is for out-of-positionwelding. The weld metal analysis is similar to an E9018-B3 low hydrogen electrode.Dual Shield 9000-B3 is recommended for welding 2-1/4% Cr-1% Mo steels. This wire is designed for single ormultiple pass welding.
Shielding Gas: CO2 or Argon mixtures up to 75% Argon
Typical Mechanical PropertiesStress Relieved
1 hr.@1275°F (691°C)
CO2
Yield Strength, psi (MPa) 86,300 (595)Tensile Strength, psi (MPa) 101,000 (691)% Elongation in 2" (51 mm) 20% Reduction of Area 59
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S Cr Mo
CO2 0.055 0.55 0.54 0.015 0.015 2.21 1.10
Standard Diameters.045" (1.2 mm), 1/16" (1.6 mm)
Recommended Welding Parameters pages 5-39 to 5-43
Additional Approvals pages 5-71 & 5-72
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Chromium-Molybdenum(Cr-Mo) WiresDual Shield 9000-B3LAWS Class E91T1-B3L
Code and Specification Data:AWS A5.29, ASME SFA 5.29
Description:Dual Shield 9000-B3L is an all-position flux cored wirefor low carbon grades of 2-1/4% Cr-1% Mo steels. Theweld metal analysis is similar to an E9018-B3L lowhydrogen electrode.
Shielding Gas: 75% - 95% Argon/Rem. CO2
Typical Mechanical PropertiesStress Relieved
1 hr.@1275°F (691°C)
CO2
Yield Strength, psi (MPa) 78,700 (543)Tensile Strength, psi (MPa) 91,700 (633)% Elongation in 2" (51 mm) 22
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S Cr Mo
CO2 0.022 0.56 0.60 0.017 0.012 2.20 1.06
Standard Diameters.045" (1.2 mm), 1/16" (1.6 mm)
Additional Low Alloy Wires listed on page 5-38
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Nickel (Ni) Steel WiresDual Shield T-5 Ni1AWS Class E70T5-G
Code and Specification Data:AWS A5.29, ASME SFA 5.29
Description:Dual Shield T-5 Ni1 is a 1% Ni basic slag wire designedfor use in applications with the most demanding impacttoughness requirements. Weld deposits exhibit excellenttoughness, low diffusible hydrogen and good ductilityeither as welded or after postweld heat treatment.Dual Shield T-5 Ni1 can be used for single or multipasswelding in all position. The procedure for out-of-positionwelding is similar to Dual Shield T-5. The weld metalanalysis is similar to an E7018 or 7018-1 low hydrogenelectrode.
Shielding Gas: 75% Argon/25% CO2
Typical Mechanical PropertiesStress-Relieved
2 hrs.As Welded @1150°F (621°C)
Yield Strength, psi (MPa) 65,500 (452) 57,500 (397)Tensile Strength, psi (MPa) 78,500 (542) 72,000 (497)% Elongation in 2" (51 mm) 30 34% Reduction of Area 76 77
Typical Charpy V-Notch Impact PropertiesStress-Relieved
2 hrs.As Welded @1150°F (621°C)
Testing Temp. ft.-lbs. (J) ft.-lbs. (J)
-20°F (-29°C) 112 (152) 150 (203)-40°F (-40°C) 100 (136) 145 (197)-60°F (-51°C) 60 (81) 120 (163)-76°F (-60°C) 51 (69) 101 (137)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Ni
0.06 1.51 0.40 0.006 0.012 1.08
Standard Diameters.045" (1.2 mm), 1/16" (1.6 mm)
Recommended Welding Parameters pages 5-39 to 5-43
Additional Approvals pages 5-71 & 5-72
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Dual Shield II 80 Ni1H4AWS Class E81T1-Ni1H4
Code and Specification Data:AWS A5.29, ASME SFA 5.29Military - MIL-E-24403/1, MIL-81T1-Ni1M
Description:Dual Shield II 80Ni1H4 is one of a series of low hydro-gen flux cored wires to be introduced by ESAB. Each ofthe new Dual Shield II H4 wires is an all-position fluxcored wire that provides excellent low temperaturetoughness in both the as welded and/or stress relievedconditions (as applicable) when used with 75% Ar/25%CO2. Each can produce diffusible hydrogen levels of <4mL/100g over a wide range of welding parameters.
Dual Shield II 80Ni1H4 is used on petrochemicalequipment, offshore oil construction, ship fabrication,railcar, and heavy machinery. The weld metal analysis issimilar to an E8018-C3 low hydrogen covered electrode.
Shielding Gas: 75% Argon/25% CO2
Typical Mechanical PropertiesStress Relieved
2 hrs.As Welded @1150°F (621°C)
Yield Strength, psi (MPa) 79,000 (545) 73,000 (503)Tensile Strength, psi (MPa) 87,000 (600) 84,000 (579)% Elongation in 2" (51 mm) 28 28% Reduction in Area 71 71
Typical Charpy V-Notch Impact PropertiesStress Relieved
2 hrs.As Welded @1150°F (621°C)
Testing Temp. ft.-lbs. (J) ft.-lbs. (J)
-20°F (-29°C) 120 (163) 104 (141)-40°F (-40°C) 115 (156) 73 (99)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Ni
0.048 1.18 0.32 0.015 0.009 0.91
Standard Diameters.045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)
Available in a Hermetically Sealed Can & Vacuum Pac
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Nickel (Ni) Steel WiresDual Shield 8000-Ni2AWS Class E81T1-Ni2
Code and Specification Data:AWS A5.29, ASME SFA 5.29Military - MIL-E-24403/1, MIL-81T1-Ni2M
Description:Dual Shield 8000-Ni2 is an all-position wire that depos-its 2-1/2% Ni deposit with an 80 ksi (552 MPa) tensilestrength.Dual Shield 8000-Ni2 may be used with CO2 or Argonmixtures. The argon-CO2 mixtures reduce spatter andfurther improves weldability especially for smallvertical-up fillets.Dual Shield 8000-Ni2 produces superior weld metalproperties which make it most desirable for suchapplications as shipbuilding and heavy machineryconstruction. The weld metal analysis is similar to anE8018-C1 low hydrogen electrode.
Shielding Gas: CO2 or Argon mixtures up to 75% Argon
Typical Mechanical PropertiesAs Welded
CO2 75% Ar/25% CO2
Yield Strength, psi (MPa) 80,000 (552) 82,000 (566)Tensile Strength, psi (MPa) 88,000 (607) 90,000 (621)% Elongation in 2" (51 mm) 26 27% Reduction of Area 67 68
Typical Charpy V-Notch Impact PropertiesAs Welded
CO2 75% Ar/25% CO2Testing Temp. ft.-lbs. (J) ft.-lbs. (J)
0°F (-18°C) 62 (84) 63 (69)-20°F (-29°C) 43 (58) 47 (64)-40°F (-40°C) 39 (53) 40 (54)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S Ni
CO2 0.045 0.80 0.33 0.007 0.015 2.2475% Ar/25% CO2 0.046 0.86 0.35 0.009 0.017 2.42
Standard Diameters.045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)
Recommended Welding Parameters pages 5-39 to 5-43
Additional Approvals pages 5-71 & 5-72
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Dual Shield II 101H4MAWS Class E91T1-GH4
Code and Specification Data:AWS A5.29, ASME SFA 5.29Military - MIL-E-24403/1
Description:Dual Shield II 101H4M is one of a series of low hydrogenflux cored wires to be introduced by ESAB. Each of thenew Dual Shield II H4 wires is an all-position flux coredwire that provides excellent low temperature toughnessin both the as welded and/or stress relieved conditions(as applicable) when used with 75% Ar/25% CO2. Eachcan produce diffusible hydrogen levels of < 4mL/100gover a wide range of welding parameters.
Dual Shield II 101H4M is especially designed to weldHY-80 and HSLA-100 steels typically used in shipbuild-ing. Suitable for single or multi-pass weldingapplications. This wire was developed to meet thestringent requirements of MIL-E-24403/2 and offshorewelding, and it is an ideal choice for HSLA steels.
Shielding Gas: CO2 or Argon mixtures up to 75% Argon
Typical Mechanical PropertiesAWS A5.29 Mil-E-24403/2
Flat Vertical UpCO2 75% Ar/25% CO2
Yield Strength, psi (MPa) 93,000 (641) 94,000 (648)Tensile Strength, psi (MPa) 102,000 (703) 105,000 (724)% Elongation in 2" (51 mm) 23 22% Reduction of Area 67 68
Typical Charpy V-Notch Impact PropertiesAWS A5.29 Mil-E-24403/2
Flat Vertical UpCO2 75% Ar/25% CO2
ft.-lbs. (J) ft.-lbs. (J)
0°F (-18°C) — 74 (100)-60°F (-40°C) 57 (77) 45 (61)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S Ni
75% Ar/25% CO2 0.052 1.37 0.30 0.015 0.009 2.14
Standard Diameters.045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)
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Nickel (Ni) Steel WiresDual Shield 9000-C1AWS Class E91T1-Ni2
Code and Specification Data:AWS A5.29, ASME SFA 5.29
Description:Dual Shield 9000-C1 is an all-position flux cored wirewhich produces a 2-1/2% Ni deposit. The analysis is verysimilar to the T-90C1 except that this product has out-of-position capability.Dual Shield 9000-C1 is used for welding of 2-3% Nisteels and castings used in applications requiring goodtoughness at subzero temperatures.
Shielding Gas: CO2 or Argon/CO2 mixtures up to 75% Argon
Typical Mechanical Properties As Welded
CO2 75% Ar/25% CO2
Yield Strength, psi (MPa) 85,200 (588) 89,500 (618)Tensile Strength, psi (MPa) 96,300 (664) 98,500 (680)% Elongation in 2" (51 mm) 25 24
Typical Charpy V-Notch Impact PropertiesAs Welded
CO2 75% Ar/25% CO2Testing Temp. ft.-lbs. (J) ft.-lbs. (J)
0°F (-18°C) 38 (52) — —-40°F (-40°C) 30 (41) 33 (45)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S Ni
CO2 0.07 1.17 0.51 0.013 0.010 2.5175% Ar/ 25% CO2 0.08 1.45 0.71 0.014 0.011 2.55
Standard Diameters.045" (1.2 mm), 1/16" (1.6 mm)
Recommended Welding Parameters pages 5-39 to 5-43
Additional Approvals pages 5-71 & 5-72
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80 ksi (552 MPa) Tensile WiresDual Shield II 81-K2AWS Class E80T1-K2
Code and Specification Data:AWS A5.29, ASME SFA 5.29
Description:Dual Shield II 81-K2 is an all-position flux cored wiredeveloped for low alloy high strength steels where lowtemperature impact toughness is required. The wireproduces a smooth stable arc and low spatter levelssimilar to other Dual Shield II products.Dual Shield II 81-K2 was developed for higher tensilesteels such as ASTM A302, A533 Class I and A537.Applications include ship fabrication, offshore oil rigs,and heavy equipment construction.
Shielding Gas: CO2
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 74,400 (513)Tensile Strength, psi (MPa) 82,900 (572)% Elongation in 2" (51 mm) 27% Reduction in Area 73
Typical Charpy V-Notch Impact PropertiesAs Welded
Testing Temp. ft.-lbs. (J)
0°F (-18°C) 100 (136)-20°F (-29°C) 89 (121)-60°F (-51°C) 60 (81)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Ni
0.022 1.04 0.24 0.007 0.013 1.56
Standard Diameters.045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)Packaged in Vacuum Pacs
Additional Low Alloy Wires listed on page 5-38
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80 ksi (552 MPa) Tensile WiresDual Shield II 101-TMAWS Class E80T1-K2
Code and Specification Data:AWS A5.29, ASME SFA 5.29Military - MIL-E-24403/2, MIL-101TM
Description:Dual Shield II 101-TM is an all-position flux cored wiredeveloped to meet the stringent requirements of themilitary specification. The excellent mechanical proper-ties and low temperature impact toughness makes it anideal choice for HSLA steels. The smooth arc character-istics, low spatter levels, and easy post weld clean-upresemble other Dual Shield II products.Dual Shield II 101-TM was specially designed to weldHY-80 and A710 steels typically used in shipbuilding.This product is suitable for single or multipass weldingapplications.
Shielding Gas: 75% Argon/25% CO2
Typical Mechanical PropertiesAs Welded AWS A5.29
MIL-E-24403/2 RequirementVertical-Up Flat
HY-80 A-710 Mild SteelBase Plate Base Plate Base Plate
Yield Strength, psi (MPa) 87,600 (604) 86,200 (594) 86,500 (596)Tensile Strength, psi (MPa) 97,200 (670) 95,000 (655) 94,700 (653)% Elongation in 2" (51 mm) 24 23 24% Reduction of Area 64 61 64
Typical Charpy V-Notch Impact PropertiesAs Welded
Testing Temp. ft.-lbs. (J) ft.-lbs. (J) ft-lbs. (J)0°F (-18°C) 68 (92) 70 (95) 79 (107)
-60°F (-51°C) 42 (57) 42 (57) 49 (66)
Typical Dynamic Tear PropertiesAs Welded
Testing Temp. ft.-lbs. (J)30°F (-1°C) 585 (793)
-20°F (-29°C) 385 (522)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Ni
0.058 1.13 0.37 0.006 0.011 1.78
Standard Diameters.035" (0.9 mm), .045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)Packaged in Vacuum Pacs
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90 ksi (621 MPa) Tensile WiresDual Shield II 101-TCAWS Class E91T1-K2
Code and Specification Data:AWS A5.29, ASME SFA 5.29Military - MIL-E-24403/2, MIL-101TC
Description:Dual Shield II 101-TC is an all-position wire developed tomeet the U.S. Navy qualification tests for hydrogen levelsof less than 0.05 ml/g of weld metal. This uniqueformulation designed for CO2 shielding optimizesperformance and reduces post-weld cleanup cost.Dual Shield II 101-TC produces exceptional mechanicalproperties and low temperature impact toughness. It isintended for use on HY-80, ASTM A710, A514, and A517or other similar HSLA steels.
Shielding Gas: CO2
Typical Mechanical PropertiesAs Welded
MIL-E-24403/2 AWS A5.29Vert-Up Flat
Yield Strength, psi (MPa) 93,000 (642) 87,500 (609)Tensile Strength, psi (MPa) 103,000 (711) 94,000 (649)% Elongation in 2" (51 mm) 23 25
Typical Charpy V-Notch Impact PropertiesAs Welded
Testing Temp. ft.-lbs. (J) ft-lbs. (J)
0°F (-18°C) 77 (104) 118 (160)-60°F (-51°C) 43 (58) — —
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Ni
0.022 1.32 0.31 0.013 0.007 1.55
Standard Diameters.045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)Packaged in Vacuum Pacs
Recommended Welding Parameters pages 5-39 to 5-43
Additional Approvals pages 5-71 & 5-72
Additional Low Alloy Wires listed on page 5-38
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90 ksi (621 MPa) Tensile WiresDual Shield II 90-K2AWS Class E91T1-K2
Code and Specification Data:AWS A5.29, ASME SFA 5.29
Description:Dual Shield II 90-K2 is an all-position, high performancewire with low diffusible hydrogen levels. This wireprovides a smooth stable arc, low spatter, and easy slagremoval similar to other Dual Shield II products.Dual Shield II 90-K2 was developed for use on commer-cial grades of HY-80, ASTM A710, A514 and A517 andother similar HSLA low alloy steels.
Shielding Gas: 75% Argon/25% CO2
Typical Mechanical PropertiesStress Relieved
10 hrs.As Welded @1075°F (579°C)
Yield Strength, psi (MPa) 87,900 (606) 76,500 (528)Tensile Strength, psi (MPa) 93,800 (647) 86,900 (600)% Elongation in 2" (51 mm) 23 26
Typical Charpy V-Notch Impact PropertiesAs Welded
Testing Temp. ft.-lbs. (J)
-20°F (-29°C) 101 (137)-40°F (-40°C) 90 (122)-60°F (-51°C) 63 (85)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Ni
0.05 1.12 0.33 0.007 0.010 1.75
Standard Diameters.045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)Available in a Hermetically Sealed Can & Vacuum Pac
Recommended Welding Parameters pages 5-39 to 5-43
Additional Approvals pages 5-71 & 5-72
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100 ksi (690 MPa) Tensile WiresDual Shield II 100AWS Class E100T1-K3
Code and Specification Data:AWS A5.29, ASME SFA 5.29
Description:Dual Shield II 100 is an all-position wire that combines ahigh strength deposit with excellent impact toughness.The rutile basic slag system produces a smooth spray-like transfer with reduced spatter and low post weldcleanup.Dual Shield II 100 is designed to join high strengthsteels such as HY-80 and T-1 in the as welded or stressrelieved condition. It is especially well suited for hightensile steels that are used in sub-zero temperatures.The weld metal analysis is similar to an E10018-M lowhydrogen electrode.
Shielding Gas: 75% Argon/25% CO2
Typical Mechanical PropertiesStress-Relieved
1 hr.As Welded @1050°F (566°C)
Yield Strength, psi (MPa) 101,750 (702) 99,300 (685)Tensile Strength, psi (MPa) 109,250 (753) 110,025 (760)% Elongation in 2" (51 mm) 21 22% Reduction of Area 60 61
Typical Charpy V-Notch Impact PropertiesStress-Relieved
1 hr.As Welded @1150°F (566°C)
Testing Temp. ft.-lbs. (J) ft.-lbs. (J)
0°F (-18°C) 48 (65) 33 (45)-20°F (-29°C) 40 (54) 30 (41)-40°F (-40°C) 32 (43) — —-60°F (-51°C) 28 (38) — —
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Ni Mo
0.05 1.40 0.38 0.008 0.019 1.91 0.45
Standard Diameters.045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)Packaged in Vacuum Pacs
GEN-26110_05.p65 7/10/01, 4:02 PM33
5-34
110 ksi (759 MPa) Tensile WiresDual Shield T-8AWS Class E110T1-G
Code and Specification Data:AWS A5.29, ASME SFA 5.29
Description:Dual Shield T-8 is a low alloy, high strength flux coredwire designed for welding of high strength quenched andtempered steels. Dual Shield T-8 weld metal meetsstringent X-ray standards. The arc is smooth, deeplypenetrating, and has practically no spatter. The thin coverof slag is easily removed revealing a flat to slightlyconvex weld bead, with a finely rippled surface.Dual Shield T-8 is designed for single and multiple passwelds in the flat or horizontal positions. Travel speedshould be adjusted so that the heat input is within40,000-50,000 joules per inch, according to the require-ments of the steel being welded. The weld metalanalysis is similar to an E11018-M low hydrogenelectrode.
Shielding Gas: CO2
Typical Mechanical PropertiesStress-Relieved
1 hr.As Welded @1025°F (552°C)
Yield Strength, psi (MPa) 106,500 (735) 105,000 (724)Tensile Strength, psi (MPa) 117,000 (807) 113,000 (779)% Elongation in 2" (51 mm) 20 19% Reduction of Area 45 48
Typical Charpy V-Notch Impact PropertiesStress-Relieved
1 hr.As Welded @1025°F (552°C)
Testing Temp. ft.-lbs. (J) ft.-lbs. (J)
72°F (22°C) 52 (71) 50 (68)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Cr Ni Mo
0.06 1.25 0.27 0.014 0.017 0.28 1.85 0.34
Standard Diameters1/16" (1.6 mm), 5/64" (2.0 mm), 3/32" (2.4 mm)
Additional Low Alloy Wires listed on page 5-38
GEN-26110_05.p65 7/10/01, 4:02 PM34
5-35
110 ksi (759 MPa) Tensile WiresDual Shield II 110AWS Class E110T1-K3
Code and Specification Data:AWS A5.29, ASME SFA 5.29
Description:Dual Shield II 110 is an all-position flux cored wire whichproduces a smooth spray-like transfer, low spatter levels,easy slag removal and good arc direction.Dual Shield II 110 was designed to join high strengthsteel such as HY-100 and T-1 in the as welded or stressrelieved condition. It is well suited for joining high tensilesteels that will be used in low temperatures. The weldmetal analysis is similar to an E11018-M low hydrogenelectrode.
Shielding Gas: 75% Argon/25% CO2
Typical Mechanical PropertiesStress Relieved
8 hrs.As Welded @1150°F (621°C)
Yield Strength, psi (MPa) 110,500 (762) 108,000 (745)Tensile Strength, psi (MPa) 120,400 (830) 116,000 (800)% Elongation in 2" (51 mm) 19 19% Reduction in Area 54 56
Typical Charpy V-Notch Impact PropertiesStress Relieved
8 hrs.As Welded @1150°F (621°C)
Testing Temp. ft.-lbs. (J) ft.-lbs. (J)
0°F (-18°C) 40 (54) 29 (39)-20°F (-29°C) 36 (49) 27 (37)-60°F (-51°C) 26 (35) 21 (28)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Ni Mo
0.06 1.57 0.35 0.011 0.013 1.84 0.38
Standard Diameters.045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)Packaged in Vacuum Pacs
GEN-26110_05.p65 7/10/01, 4:02 PM35
5-36
110 ksi (759 MPa) Tensile WiresDual Shield T-115AWS Class E110T5-K4
Code and Specification Data:AWS A5.29, ASME SFA 5.29, CWB A5.29
Description:Dual Shield T-115 is a basic slag flux cored wire designedfor applications requiring a high strength weld deposit.Dual Shield T-115 produces weld deposits which areresistant to cracking in heavy sections or under highrestraint. It has good usability with a minimum amount ofspatter and easy slag removal. It can be used for weldingsteels such as: T-1, HY-80, HY-90, N-A-XTRA 90, 100 and110, and the SSS 100 series. The weld metal analysis issimilar to an E11018-M low hydrogen electrode.
Shielding Gas: CO2 for 3/32" (2.4 mm); Argon mixtures up to75% Argon for .045" & 1/16" (1.2 & 1.6 mm)
Mechanical PropertiesStress-Relieved
1 hr.As Welded @1050°F (566°C)
75% Ar/25% CO2 75% Ar/25% CO2
Yield Strength, psi (MPa) 104,500 (721) 96,000 (662)Tensile Strength, psi (MPa) 119,000 (821) 109,000 (752)% Elongation in 2" (51 mm) 20 23% Reduction of Area 65 65
Typical Charpy V-Notch Impact PropertiesStress-Relieved
1 hr.As Welded @1050°F (566°C)
75% Ar/25% CO2 75% Ar/25% CO2Testing Temp. ft.-lbs. (J) ft.-lbs. (J)
-20°F (-29°C) 50 (68) 48 (65)-60°F (-51°C) 36 (49) 32 (43)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S Cr Ni Mo
75% Ar/25% CO2 0.05 1.66 0.42 0.012 0.013 0.24 2.00 0.46
Standard Diameters.045" (1.2 mm), 1/16" (1.6 mm), 3/32" (2.4 mm)
Recommended Welding Parameters pages 5-39 to 5-43
Additional Approvals pages 5-71 & 5-72
GEN-26110_05.p65 7/10/01, 4:02 PM36
5-37
Manganese-Molybdenum(Mn-Mo) WireDual Shield II 100-D1AWS Class E100T1-G
Code and Specification Data:AWS A5.29, ASME SFA 5.29
Description:Dual Shield II 100-D1 is an all-position flux coredwelding wire specially formulated to weld quenched andtempered steels that require a postweld heat treatment.Dual Shield II 100-D1 was designed to weld oil fieldcomponents made of 4130, 8630, API X-80 andsimilar steels.
Shielding Gas: 75% Argon/25% CO2
Typical Mechanical PropertiesStress-Relieved
8 hrs.As Welded @1175°F (635°C)
Yield Strength, psi (MPa) 105,500 (728) 89,500 (618)Tensile Strength, psi (MPa) 111,300 (768) 97,500 (673)% Elongation in 2" (51 mm) 21 24% Reduction of Area 65 63
Typical Charpy V-Notch Impact PropertiesStress Relieved
8 hrs.As Welded @1175°F (635°C)
Testing Temp. ft.-lbs. (J) ft.-lbs. (J)
-25°F (-32°C) 38 (52) 19 (26)-40°F (-40°C) 33 (45) — —
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Ni Mo
0.06 1.71 0.38 0.009 0.015 0.82 0.32
Standard Diameter.045" (1.2 mm)
GEN-26110_05.p65 7/10/01, 4:02 PM37
5-38
AdditionalDual Shield Low Alloy Wires*
Dual Shield 78-MO (E80T1-A1)Dual Shield 88-CM (E80T1-B2)Dual Shield 8000-B1 (E81T1-B1)Dual Shield T-85-B2 (E80T5-B2)Dual Shield 85-C1 (E80T5-Ni2)Dual Shield 88-W (E80T1-W)Dual Shield 8100-W (E80T1-W)Dual Shield 80-C3 (E80T1-Ni1)Dual Shield T-95-B3 (E90T5-B3)Dual Shield 98-CM (E90T1-B3)Dual Shield T-90C1 (E90T1-Ni2)Dual Shield 9000-D1 (E91T1-D1)Dual Shield 150 (E90T1-D3)Dual Shield T-95-M (E90T5-K2)Dual Shield 9100-K2 (E91T1-K2)Dual Shield 9000-M (E91T1-K2)Dual Shield T100 (E100T1-K3)Dual Shield T-4130 (No AWS Class)Dual Shield T-4130-LN (No AWS Class)
* Note: For technical information contact the MarketingDepartment
NOTES
GEN-26110_05.p65 7/10/01, 4:02 PM38
5-39
Dua
l Shi
eld
Rut
ile &
Rut
ile B
asic
Sla
g W
eldi
ng D
ata
(E70
T-1,
E71
T-1,
E70
T-2,
. . .
)W
IRE
FE
ED
DE
PO
SIT
ION
AM
PS
VO
LTS
SP
EE
DR
ATE
% E
FF
ICIE
NC
YIP
M (
cm/m
in)
lbs/
hr (
kg/h
r)
.035
" (0
.9m
m)
130
2228
8(7
32)
3.2
(1.4
5)85
150
2538
4(9
75)
4.3
(1.9
5)85
200
2757
6(1
463)
6.5
(2.9
5)85
250
3078
4(1
991)
8.9
(4.0
4)86
.045
" (1
.2 m
m)
150
2820
0(5
08)
4.2
(1.9
1)86
210
2930
0(7
62)
6.3
(2.8
6)86
250
3040
0(1
016)
8.5
(3.8
6)87
290
3350
0(1
270)
10.7
(4.8
5)87
330
3460
0(1
524)
12.7
(5.7
6)87
.052
" (1
.4m
m)
155
2515
0(3
81)
4.4
(2.0
0)87
245
2825
0(6
35)
7.3
(3.3
1)86
310
3335
0(8
89)
10.2
(4.6
3)85
360
3645
0(1
143)
13.3
(6.0
3)85
430
3760
0(1
524)
17.6
(7.9
8)87
1/16
" (1
.6m
m)
190
2715
0(3
81)
6.1
(2.7
7)87
300
3025
0(6
35)
10.2
(4.6
3)87
365
3330
0(7
62)
12.3
(5.5
8)86
410
3335
0(8
89)
14.0
(6.3
5)88
450
3340
0(1
016)
16.1
(7.3
0)87
500
3950
0(1
270)
20.1
(9.1
1)87
GEN-26110_05.p65 7/10/01, 4:02 PM39
5-40
Dua
l Shi
eld
Rut
ile &
Rut
ile B
asic
Sla
g W
eldi
ng D
ata
(E70
T-1,
E71
T-1,
E70
T-2,
. . .
) (co
nt‘d
.)
WIR
E F
EE
DD
EP
OS
ITIO
NA
MP
SV
OLT
SS
PE
ED
RAT
E%
EF
FIC
IEN
CY
IPM
(cm
/min
)lb
s/hr
(kg
/hr)
5/64
" (2
.0m
m)
250
2611
2(2
84)
6.4
(2.9
0)85
350
2817
6(4
47)
10.5
(4.7
6)85
450
3125
8(6
55)
14.8
(6.7
1)85
3/32
" (2
.4m
m)
350
3012
4(3
15)
9.6
(4.3
5)84
400
3016
6(4
22)
12.7
(5.7
6)85
450
3119
7(5
00)
15.0
(6.8
0)86
500
3223
7(6
02)
18.5
(8.3
9)86
550
3427
8(7
06)
21.3
(9.6
6)88
7/64
" (2
.8m
m)
550
3014
0(3
56)
17.1
(7.7
6)85
625
3416
1(4
09)
19.6
(8.8
9)86
700
3619
0(4
83)
23.0
(10.
43)
86
1/8"
3.2
mm
)60
032
111
(282
)16
.2(7
.35)
8672
534
153
(389
)22
.5(1
0.21
)86
850
3819
4(9
3)29
.2(1
3.25
)85
GEN-26110_05.p65 7/10/01, 4:02 PM40
5-41
Sugg
este
d W
eldi
ng P
aram
eter
sD
ual S
hiel
d —
Fla
t and
Hor
izon
tal
DIAM
ETER
VOLT
SAM
PERE
S.0
35"
(0.9
mm
)22
-30
130-
250
.045
"(1
.2m
m)
23-3
015
0-28
0.0
52"
(1.3
mm
)24
-29
190-
300
1/16
"(1
.6m
m)
25-3
418
0-40
05/
64"
(2.0
mm
)26
-30
250-
400
3/32
"(2
.4m
m)
26-3
335
0-55
07/
64"
(2.8
mm
)30
-35
500-
700
1/8"
(3.2
mm
)31
-36
600-
800
A c
onst
ant
volta
ge p
ower
sou
rce
oper
ated
on
DC
EP (
Elec
trode
Pos
itive
) is
nee
ded
for
prop
er o
pera
tion.
Bes
t res
ults
are
obt
aine
d by
usi
ng s
ugge
sted
set
tings
and
adju
stin
g tra
vel s
peed
to o
btai
n de
sire
d be
ad s
ize.
Shie
ldin
g ga
s w
ith a
low
dew
poi
nt (
belo
w -
40°F
) at
a f
low
rat
e of
30-
40 C
FH is
reco
mm
ende
d. W
hen
usin
g 75
% A
rgon
/25%
CO
2 sh
ield
ing
gas,
vol
tage
s m
ay b
ere
duce
d by
app
roxi
mat
ely
11/2
vol
ts. F
or fu
lly a
utom
atic
ope
ratio
ns, a
mpe
rage
s ca
n be
incr
ease
d by
app
roxi
mat
ely
25%
.
Elec
tric
al s
ticko
ut (
ESO
) is
the
dist
ance
mea
sure
d fro
m th
e co
ntac
t tip
to th
e w
ork
piec
e. T
he E
SO fo
r .0
35 -
1/1
6"
(0.9
- 1
.6m
m)
elec
trode
s is
1/2
- 1.
0" (1
2.7
- 25.
4mm
). Th
e ES
O fo
r 5/6
4 - 1
/8"
(2.0
- 3.
2mm
) ele
ctro
des
is 3
/4 -
1 1/
4" (1
9 - 3
2mm
).
Sugg
este
d W
eldi
ng P
aram
eter
sD
ual S
hiel
d —
All
Posi
tion
FLAT
VER
TIC
AL-U
PO
VER
HEA
DDI
AMET
ERVO
LTS
AMPS
OPT
IMUM
VOLT
SAM
PSO
PTIM
UMVO
LTS
AMPS
OPT
IMUM
.035
"(0
.9m
m)
20-3
013
0-25
026
V, 2
00A
16-2
390
-180
23V,
150
A20
-28
130-
240
26V,
200
A.0
45"
(1.2
mm
)23
-30
150-
280
27V,
240
A22
-26
150-
250
25V,
200
A24
-29
150-
250
27V,
210
A.0
52"
(1.4
mm
)24
-32
180-
300
28V,
260
A21
-26
150-
230
25V,
210
A24
-30
160-
280
28V,
220
A1/
16"
(1.6
mm
)25
-34
180-
400
28V,
275
A21
-27
180-
300
25V,
220
A24
-30
180-
310
28V,
240
A
GEN-26110_05.p65 7/10/01, 4:02 PM41
5-42
Dua
l Shi
eld
Bas
ic S
lag
Wel
ding
Dat
a(E
70T-
5, E
71T-
5, E
80T-
5, E
90T-
5, E
110T
-5, .
. .)
DEP
OSI
TIO
N -
% E
FFIC
IEN
CY
DAT
AW
IRE
FE
ED
DE
PO
SIT
ION
ELE
CT
RIC
AL
AM
PE
RE
SV
OLT
SS
PE
ED
RAT
E%
EF
FIC
IEN
CY
ST
ICK
OU
TP
OLA
RIT
YIP
M (
cm/m
in)
lbs/
hr (
kg/h
r)in
(m
m)
.045
" (1
.2m
m)
170
1928
5(7
24
)7
(3.2
0)96
3/4
(19.
1)D
CE
N25
030
469
(119
1)10
.8(4
.90)
911
(25.
4)D
CE
P30
032
606
(153
9)14
.2(6
.44)
921
(25.
4)D
CE
P35
032
740
(188
0)17
.5(7
.94)
931
(25.
4)D
CE
P
1/16
" (1
.6m
m)
300
3022
6(5
74
)9.
8(4
.45)
921
(25.
4)D
CE
P40
032
369
(93
7)
16.1
(7.3
0)92
1(2
5.4)
DC
EP
450
3242
2(1
072)
18.5
(8.4
0)93
1(2
5.4)
DC
EP
3/32
" (2
.4m
m)
450
3221
7(5
51
)17
.6(8
.0)
851
(25.
4)D
CE
P47
532
245
(62
2)
20.0
(9.1
)87
1(2
5.4)
DC
EP
500
3227
0(6
86
)22
.8(1
0.3)
891
(25.
4)D
CE
P55
033
346
(87
9)
29.6
(13.
4)91
1(2
5.4)
DC
EP
GEN-26110_05.p65 7/10/01, 4:02 PM42
5-43
Sugg
este
d W
eldi
ng P
aram
eter
s
OPT
IMUM
DIAM
ETER
VOLT
AGE
AMPE
RAG
EST
ICKO
UT
in (m
m)
POSI
TIO
NFL
AT/
HO
RIZ
ON
TAL
.045
"(1
.2m
m)
18-3
317
0-35
03/
4 -
1(1
9.1
- 25
.4)
F/H
/V28
0 A/
31 V
1/16
"(1
.6m
m)
28-3
425
0-45
03/
4 -
1(1
9.1
- 25
.4)
F/H
400
A/32
V3/
32"
(2.4
mm
)31
-35
400-
550
1 -
1-1/
4(2
5.4
- 31
.8)
F/H
500
A/33
V
A c
onst
ant
volta
ge p
ower
sou
rce
oper
ated
on
DC
EP (
Elec
trode
Pos
itive
) is
rec
om-
men
ded
for
flat a
nd h
oriz
onta
l wel
ding
. DC
EN (
Elec
trode
Neg
ativ
e) is
use
d fo
r ou
t-of-
posi
tion
wel
ding
. Bes
t res
ults
are
obt
aine
d by
usi
ng s
ugge
sted
set
tings
and
adj
ustin
g tra
vel
spee
d to
obt
ain
desi
red
bead
siz
e.
Shie
ldin
g ga
s w
ith a
low
dew
poi
nt (
belo
w -
40°F
/-40°
C)
at a
flo
w r
ate
of 3
0-40
CFH
isre
com
men
ded.
Whe
n us
ing
Arg
on M
ix sh
ield
ing
gas,
vol
tage
s m
ay b
e re
duce
d by
app
roxi
-m
atel
y 1.
5 v
olts
. For
fully
aut
omat
ic o
pera
tions
, am
pera
ges
can
be in
crea
sed
by a
ppro
xi-
mat
ely
25%
.
Elec
tric
al s
ticko
ut
(ESO
) is
the
dist
ance
mea
sure
d fro
m th
e co
ntac
t tip
to th
e w
ork
piec
e. C
onsu
lt ta
ble
abov
e fo
r app
ropr
iate
ESO
.
Ave
rage
Len
gth/
Uni
t Wei
ght
of C
ored
Wir
esDI
AMET
ERW
EIG
HTin
.mm
ft./lb
.m
/kg
0.03
00.
840
827
40.
035
0.9
360
242
0.04
51.
221
014
10.
052
1.4
153
103
1/16
1.6
110
745/
642.
075
503/
322.
455
377/
642.
830
200.
120
3.0
3322
1/8
3.2
3020
5/32
4.0
2013
GEN-26110_05.p65 7/10/01, 4:02 PM43
5-44
CORESHIELD ® Flux Cored Wires
Coreshield —Self-Shielded Flux Cored WiresCoreshield wires require no external shielding gas. Theshielding is generated by the core ingredients makingthese wires more suitable for outdoor operation. Theyare available for welding carbon steels and galvanizedsteels.Dual Shield and Coreshield wires are covered by AWSSpecification A5.20 and A5.29 on the following pages.
GEN-26110_05.p65 7/10/01, 4:02 PM44
5-45
Self-Shielded Cored WiresCoreshield 40AWS Class E70T-4
Code and Specification Data:AWS A5.20, ASME SFA 5.20, CSA W48.5
Description:Coreshield 40 is a self-shielded flux cored wire primarilydesigned for multiple pass, horizontal and flat positionwelding of low and medium carbon steels when tough-ness is not a requirement. The larger sizes achieve veryhigh deposit rates for very low joining costs. The lowpenetration, convex fillet bead shape and ability for theslag to desulfurize the deposit make it an ideal choicewhen crack resistance is a primary consideration. Theflat position deposits are smooth and uniform with goodwetting into the side walls. The core ingredients arecarefully balanced to stabilize the droplet transfer,enhance the ability to handle mill scale and easily detachthe slag for quick cleaning.Coreshield 40 is designed to operate on DCEP (elec-trode positive) with longer electrical stickout. The longerextension increases the deposit potential by preheatingthe wire. The percent of the melt-off converted to fumes,although higher than Dual Shield wires, is reasonablylow and the fume can be removed at the source.
Typical Mechanical PropertiesAs Welded
All Weld MetalHeld at 220°F (104°C)
for 48 hrs.
Yield Strength, psi (MPa) 62,300 (430)Tensile Strength, psi (MPa) 85,900 (593)% Elongation in 2" (51 mm) 29
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Al
0.22 0.34 0.28 0.012 0.007 1.3
Special Precautions:Coreshield 40 contains fluoride compounds. The limit forfluorine may be reached before the general fume limit of5 mg/m3 is reached. Consult MSDS for more information.
Standard Diameters1/16" (1.6 mm), 5/64" (2.0 mm), 3/32" (2.4 mm), .120" (4.7 mm)
Recommended Welding Parameters page 5-53
Additional Approvals pages 5-71 & 5-72
GEN-26110_05.p65 7/10/01, 4:02 PM45
5-46
Self-Shielded Cored WiresCoreshield 7AWS Class E70T-7
Code and Specification Data:AWS A5.20, ASME SFA 5.20CWB-CSA W48.5, E4802T-7
Description:Coreshield 7 flux cored wire is a self-shielded wiredesigned for single or multiple pass welding of mildsteel when impact toughness is not a requirement. Thehigh deposit rate can be successfully translated into fasttravel speeds. The DCEN (electrode negative) operationis characterized by a spray-like transfer and a wettingslag which make it ideal for lap and step-up fillet welds.The crumbly slag is easily removed with light scraping;the weld bead is slightly convex. The smaller diameterscan be applied vertically down on 10 gauge (3.4 mm)and thicker steels. Coreshield 7 is ideally suited forstructural steel applications.
Typical Mechanical PropertiesAs Welded
Held @220°F (104°C)for 48 hrs.
Yield Strength, psi (MPa) 67,000 (462)Tensile Strength, psi (MPa) 90,700 (625)% Elongation in 2" (51 mm) 26
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Al
0.26 0.45 0.14 0.012 0.007 1.55
Special Precautions:Coreshield 7 contains fluoride compounds. The allow-able limit of fluoride may be reached before the generalfume limit is reached. Consult MSDS for more informa-tion.
Standard Diameters1/16" (1.6 mm), 5/64" (2.0 mm), 3/32" (2.4 mm), 7/64" (2.8 mm)
Recommended Welding Parameters page 5-54
GEN-26110_05.p65 7/10/01, 4:02 PM46
5-47
Coreshield 8AWS Class E71T-8
Code and Specification Data:AWS A5.20 E71T-8
Description:Coreshield® 8 is a self-shielded flux cored wire exhibitingextremely good arc characteristics and high welderappeal. This results in minimizing the effort by thewelder during the welding process. This electrode willprovide good toughness and ductility in commonly usedwelding procedures. It meets the strength andtoughness requirements of AWS A5.20 class E71T-8 andABS;3SA, 3YSAH.The 1/16” diameter is ideal for achieving high depositionrates with enhanced operational characteristics in allpositions. For all-position and open-root joints with 1/16inch diameter wire, use a wire feed speed (WFS) of 120-150 in/min; for horizontal and flat welding use a WFS of150-280 in/min. See recommended welding parametersfor settings for all diameters of Coreshield® 8.
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 67,300 (464)Tensile Strength, psi (MPa) 82,100 (566)% Elongation in 2" (51 mm) 23.5CVN ft.-lbs. (J)
@-20°F (-29°C) 43 (58)@-60° F(-51°C) 22 (30)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S V Cu Al
0.17 0.45 0.12 0.010 0.003 0.01 0.01 0.50
Special Precautions:Coreshield 8 contains very low levels of barium. The TLVfor barium will not be reached before the total weldingfume limit of 5 mg/m3 is reached. The fumes and slagdust can be irritating and care should be taken to keepthese out of the welder’s breathing zone. Consult MSDSfor more information.
Standard Diameters1/16" (1.6 mm), 5/64" (2.0 mm), .072” (1.8 mm)
Recommended Welding Parameters page 5-55
GEN-26110_05.p65 7/10/01, 4:02 PM47
5-48
Self-Shielded Cored WiresCoreshield 8Ni1AWS Class E71T8-Ni1
Code and Specification Data:AWS A5.29, ASME SFA 5.29
Description:Coreshield 8Ni1 is a self-shielded flux cored wiredesigned to produce welds with outstanding impacttoughness at temperatures as low as -60°F (-51°C). It issuitable for all position welding and is especially suitedfor making root passes or handling poor fit up. It shouldonly be run on DCEN (electrode negative).Coreshield 8Ni1 should be used for welding offshorestructures, bridges, storage tanks, and other applica-tions where excellent impact toughness is specified andwhere self-shielding provides an advantage.
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 61,500 (424)Tensile Strength, psi (MPa) 76,100 (525)% Elongation in 2" (51 mm) 30.0CVN ft.-lbs. (J)
@-20°F (-29°C) 119 (161)@-60° F(-51°C) 82 (111)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Ni Al
0.04 1.25 0.30 0.013 0.008 1.06 0.85
Special Precautions:Coreshield 8Ni1 contains barium compounds. Theexposure limit for barium may be exceeded before theexposure limit for total fume. Consult MSDS for moreinformation.
Standard Diameters1/16" (1.6 mm), 5/64" (2.0 mm)
Recommended Welding Parameters page 5-56
Additional Approvals pages 5-71 & 5-72
GEN-26110_05.p65 7/10/01, 4:02 PM48
5-49
Coreshield 10AWS Class E70T-14
Code and Specification Data:AWS A5.20, ASME SFA 5.20
Description:Coreshield 10 is a self-shielded flux cored welding wiredesigned for high speed single pass welding of thingauge carbon, aluminized and galvanized steels. Its lowspatter and excellent bead appearance makes it an idealchoice for high production applications. The use ofDCEN (electrode negative) minimizes the risk of burn-through. High deposition efficiencies make it an idealchoice for automation.Coreshield 10 produces good wetting characteristics athigh speeds making it suitable for robotic applications. Itis designed to be used on automotive components,semi-trailer frames and axles, hot water tanks and doorframes.
Typical Mechanical PropertiesAs Welded
Held @210°F (99°C)for 48 hrs.
Transverse Tensile Strength (MPa) 91,700 (633) (Specimen broke in the base metal)Longitudinal Bend Test: Meets (Bent 180° over 3/4" (19.05 mm) radium requirements
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Al Ti
0.05 1.40 0.25 0.015 0.02 1.0 1.0
Special Precautions:Coreshield 10 contains barium and fluoride compounds.It is unlikely that these limits may be reached before thegeneral fume limit of 5 mg/m3 is reached. Consult MSDSfor more information.
Standard Diameters.045" (1.2 mm), 1/16" (1.6 mm), 5/64" (2.0 mm), 3/32" (2.4 mm)
Recommended Welding Parameters page 5-57
Additional Approvals pages 5-71 & 5-72
GEN-26110_05.p65 7/10/01, 4:02 PM49
5-50
Self-Shielded Cored WiresCoreshield 11AWS Class E71T-11
Code and Specification Data:AWS A5.20, ASME SFA 5.20, CSA W48.5
Description:Coreshield 11 is an all-position self-shielded flux coredwelding wire meeting all requirements for the E71T-11classification.Coreshield 11 is excellent for use on single or multiplepass lap, fillet and butt welds on mild steels in allwelding positions. Limitations do exist for multipasswelds in excess of 3/8" (9.5 mm). It produces smooth arcaction, full slag coverage, easy slag removal, and lowspatter. This product should find excellent acceptance ingeneral purpose mild steel fabrication.
Typical Mechanical PropertiesAs Welded
Held @220°F (104°C)for 48 hrs.
Yield Strength, psi (MPa) 63,000 (435)Tensile Strength, psi (MPa) 90,000 (621)% Elongation in 2" (51 mm) 22
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Al
0.25 0.70 0.40 0.01 0.01 1.6
Special Precautions:Coreshield 11 contains fluoride and barium compounds.The limit for soluble barium may be reached before thegeneral fume limit of 5 mg/m3 is reached. Consult MSDSfor more information.
Standard Diameters.035" (0.9 mm), .045" (1.2 mm), 1/16" (1.6 mm), 5/64" (2.0 mm)
Recommended Welding Parameters page 5-58
GEN-26110_05.p65 7/10/01, 4:02 PM50
5-51
Coreshield 15AWS Class E71T-14
Code and Specification Data:AWS A5.20, ASME SFA 5.20
Description:Coreshield 15 is an all-position self-shielded flux coredwelding wire for single pass applications. Coreshield 15produces smooth arc action, full slag coverage, easyslag removal, and low spatter. The use of DCEN (elec-trode negative) current minimizes the risk ofburn-through.Coreshield 15 is excellent for use on lap and fillet weldson thin gauge galvanized and mild steels in all weldingpositions. The availability of .030" (0.8 mm) diametermakes it possible to use this product on materials asthin as 18 gauge (1.22 mm).
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 89,000 (614) (Specimen broke in the base metal)Longitudinal Guided Bend Test Satisfactory
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Al
0.23 0.70 0.40 0.007 0.010 1.98
Special Precautions:Coreshield 15 contains barium and fluoride compounds.The limit for soluble barium may be reached before thegeneral fume limit of 5 mg/m3 is reached. Consult MSDSfor more information.
Standard Diameters.030" (0.8 mm) , .045" (1.2 mm), 1/16" (1.6 mm), 5/64" (2.0 mm)
Recommended Welding Parameters page 5-58
Additional Approvals pages 5-71 & 5-72
GEN-26110_05.p65 7/10/01, 4:02 PM51
5-52
Self-Shielded Cored WiresCoreshield 11Ni3AWS Class E81T11-Ni3
Code and Specification Data:AWS A5.29, Class E81T11-Ni3
Description:Coreshield 11Ni3 is an all-position self-shielded wiredesigned to produce weld metal with good toughhness(minimum 20 ft-lbs at 0°F). In addition, Coreshield 11Ni3provides the good weldability of Coreshield 11. Itfeatures a smooth arc, low spatter, full slag coverage,and easy slag removal.Coreshield 11Ni3 is ideal for field welding of structuralsteel where impact toughness is specified. May be usedfor single or multipass welding.
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 81,000 (558)Tensile Strength, psi (MPa) 91,500 (631)% Elongation in 2" (51 mm) 24.5CVN ft.-lbs. (J)
@ 0°F (-18°C) 26 (35)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Ni Al
0.04 0.26 0.20 0.010 0.001 3.6 1.6
Special Precautions:Coreshield 11Ni3 contains fluoride and barium com-pounds. The limit for soluble barium may be reachedbefore the general fume limit of 5 mg/m3 is reached.Fume extraction at the arc must be used if Coreshield11Ni3 is used indoors. Consult MSDS for more informa-tion.
Standard Diameters.035" (0.9 mm), .045" (1.2 mm), 1/16" (1.6 mm), 5/64" (2.0 mm)
Recommended Welding Parameters page 5-59
GEN-26110_05.p65 7/10/01, 4:02 PM52
5-53
Cor
eshi
eld
40 W
eldi
ng D
ata
WIR
E F
EE
DD
EP
OS
ITIO
NE
LEC
TR
ICA
LA
MP
ER
ES
VO
LTS
SP
EE
DR
ATE
% E
FF
ICIE
NC
YS
TIC
KO
UT
IPM
(cm
/min
)lb
s/hr
(kg
/hr)
in (
mm
)
1/16
" (1
.6m
m)
200
2716
5(4
19
)6.
5(2
.95
)83
1 3/
4(4
4.5
)25
028
207
(52
6)
7.4
(3.4
)84
1 3/
4(4
4.5
)30
029
263
(66
8)
9.7
(4.4
)87
1 3/
4(4
4.5
)
5/64
" (2
.0m
m)
220
2712
0(3
05
)6.
0(2
.7)
771
3/4
(44
.5)
300
2817
8(4
52
)9.
4(4
.26
)85
1 3/
4(4
4.5
)40
029
230
(58
4)
11.6
(5.2
6)
841
3/4
(44
.5)
3/32
" (2
.4m
m)
350
2819
6(4
98
)13
.8(6
.26
)82
2 1/
2(6
3.5
)37
529
212
(53
9)
15.1
(6.8
5)
842
1/2
(63
.5)
400
3022
9(5
82
)16
.1(7
.30
)84
2 1/
2(6
3.5
)
.120
" (3
.0m
m)
450
2910
1(2
57
)13
.0(5
.90
)85
2 3/
4(6
9.9
)50
030
113
(28
7)
14.7
(6.6
8)
862
3/4
(69
.9)
550
3312
3(3
13
)15
.5(7
.03
)84
2 3/
4(6
9.9
)
NO
TE: D
CE
P (E
LEC
TRO
DE
PO
SIT
IVE
) ON
LY. P
AR
AM
ETE
RS
MAY
VA
RY
DE
PE
ND
ING
ON
MAT
ER
IAL
THIC
KN
ES
S.
GEN-26110_05.p65 7/10/01, 4:02 PM53
5-54
Cor
eshi
eld
7 W
eldi
ng D
ata
WIR
E F
EE
DD
EP
OS
ITIO
NE
LEC
TR
ICA
LA
MP
ER
ES
VO
LTS
SP
EE
DR
ATE
% E
FF
ICIE
NC
YS
TIC
KO
UT
IPM
(cm
/min
)lb
s/hr
(kg
/hr)
in (
mm
)
1/16
" (1
.6m
m)
225
2518
0(4
57
)6.
6(2
.97)
811
(25.
4)32
028
300
(76
2)
10.8
(4.8
8)80
1(2
5.4)
375
3037
0(9
40
)12
.8(5
.79)
801
(25.
4)
5/64
" (2
.0m
m)
275
2614
5(3
68
)7.
2(3
.26)
801
(25.
4)32
527
172
(43
7)
8.8
(3.9
6)82
1(2
5.4)
375
2822
0(5
58
)11
.2(5
.08)
841
(25.
4)
3/32
" (2
.4m
m)
325
2713
5(3
43
)8.
8(3
.99)
831
1/4
(31.
8)35
029
175
(44
5)
10.7
(4.8
4)84
1 1/
4(3
1.8)
400
2920
0(5
08
)12
.6(5
.70)
851
1/4
(31.
8)
7/64
" (2
.8m
m)
400
2912
0(3
05
)11
.5(5
.21)
861
1/2
(38.
1)43
030
150
(38
1)
13.5
(6.1
0)87
1 1/
2(3
8.1)
490
3117
5(4
45
)15
.8(7
.15)
871
1/2
(38.
1)
NOTE
: DC
EN (E
LEC
TRO
DE
NEG
ATIV
E) O
NLY
. PAR
AMET
ERS
MAY
VAR
Y D
EPEN
DIN
G O
N M
ATER
IAL T
HIC
KNES
S.
GEN-26110_05.p65 7/10/01, 4:02 PM54
5-55
Cor
eshi
eld
8 W
eldi
ng D
ata
WIR
E F
EE
DD
EP
OS
ITIO
NE
LEC
TR
ICA
LA
MP
ER
ES
VO
LTS
SP
EE
DR
ATE
% E
FF
ICIE
NC
YS
TIC
KO
UT
IPM
(cm
/min
)lb
s/hr
(kg
/hr)
in (
mm
)
1/16
" (1
.6m
m)
155
2115
0(3
81
)4.
2(1
.91)
79.5
(12.
7)18
021
.518
5(4
70
)5.
1(2
.31)
80.5
(12.
7)20
523
.524
0(6
10
)6.
6(2
.99)
78.5
(12.
7)22
024
.527
5(6
99
)7.
5(3
.4)
79.5
(12.
7)
.072
" (1
.8m
m)
200
20.5
160
(40
6)
6.13
(2.7
8)79
.5(1
2.7)
225
2119
0(4
83
)7.
32(3
.32)
80.5
(12.
7)25
523
230
(58
4)
8.99
(4.0
8)80
.5(1
2.7)
275
2426
0(6
60
)10
.19
(4.6
2)81
.5(1
2.7)
5/64
" (2
.0m
m)
150
20.5
90(2
29
)3.
96(1
.80)
81.7
5(1
9.1)
175
21.5
110
(27
9)
4.83
(2.1
9)81
.75
(19.
1)20
023
135
(334
3)5.
93(2
.69)
80.7
5(1
9.1)
NOTE
: DC
EN (E
LEC
TRO
DE
NEG
ATIV
E) O
NLY
. PAR
AMET
ERS
MAY
VAR
Y D
EPEN
DIN
G O
N M
ATER
IAL T
HIC
KNES
S.
GEN-26110_05.p65 7/10/01, 4:02 PM55
5-56
Cor
eshi
eld
8Ni1
Wel
ding
Dat
aW
IRE
FE
ED
DE
PO
SIT
ION
ELE
CT
RIC
AL
AM
PE
RE
SV
OLT
SS
PE
ED
RAT
E%
EF
FIC
IEN
CY
ST
ICK
OU
TIP
M (
cm/m
in)
lbs/
hr (
kg/h
r)in
(m
m)
1/16
" (1
.6m
m)
135
2010
0(2
54
)2.
9(1
.3)
725/
8(1
5.9)
200
2113
0(3
30
)3.
8(1
.7)
745/
8(1
5.9)
230
2216
0(4
06
)4.
7(2
.1)
745/
8(1
5.9)
5/64
" (2
.0m
m)
170
2065
(16
5)
2.8
(1.3
)71
3/4
(19.
1)19
522
80(2
03
)3.
4(1
.5)
723/
4(1
9.1)
230
2410
0(2
54
)4.
7(2
.1)
733/
4(1
9.1)
NOTE
: DC
EN (E
LEC
TRO
DE
NEG
ATIV
E) O
NLY
. PAR
AMET
ERS
MAY
VAR
Y D
EPEN
DIN
G O
N M
ATER
IAL T
HIC
KNES
S.
GEN-26110_05.p65 7/10/01, 4:02 PM56
5-57
Cor
eshi
eld
10 W
eldi
ng D
ata
WIR
E F
EE
DD
EP
OS
ITIO
NE
LEC
TR
ICA
LA
MP
ER
ES
VO
LTS
SP
EE
DR
ATE
% E
FF
ICIE
NC
YS
TIC
KO
UT
IPM
(cm
/min
)lb
s/hr
(kg
/hr)
in (
mm
)
.045
" (1
.2m
m)
8013
60(1
52
)1.
1(0
.50)
761/
2(1
2.7)
150
1711
8(3
00
)2.
6(1
.18)
881/
2(1
2.7)
225
1822
6(5
74
)5.
1(2
.31)
901/
2(1
2.7)
1/16
" (1
.6m
m)
175
1461
(15
5)
2.1
(0.9
5)73
1/2
(12.
7)22
018
78(1
98
)3.
3(1
.50)
831/
2(1
2.7)
275
1910
8(2
74
)4.
8(2
.18)
931/
2(1
2.7)
5/64
" (2
.0m
m)
250
2058
(14
7)
4.0
(1.8
1)94
3/4
(19.
1)30
021
85(2
16
)5.
1(2
.31)
853/
4(1
9.1)
400
2714
3(3
63
)9.
2(4
.17)
903/
4(1
9.1)
NOTE
: DC
EN (E
LEC
TRO
DE
NEG
ATIV
E) O
NLY
. PAR
AMET
ERS
MAY
VAR
Y D
EPEN
DIN
G O
N M
ATER
IAL T
HIC
KNES
S.
GEN-26110_05.p65 7/10/01, 4:02 PM57
5-58
Cor
eshi
eld
11 &
15
Wel
ding
Dat
aW
IRE
FE
ED
DE
PO
SIT
ION
ELE
CT
RIC
AL
AM
PE
RE
SV
OLT
SS
PE
ED
RAT
E%
EF
FIC
IEN
CY
ST
ICK
OU
TIP
M (
cm/m
in)
lbs/
hr (
kg/h
r)in
(m
m)
.030
" (0
.8m
m)
4015
69(1
75
)0.
6(0
.27)
793/
8(9
.5)
100
1617
5(4
44
)1.
5(0
.68)
803/
8(9
.5)
160
1644
0(1
117)
3.8
(1.7
2)80
3/8
(9.5
)
.035
" (0
.9m
m)
8015
81(2
06
)0.
9(0
.41)
753/
8(9
.5)
120
1715
5(3
94
)1.
7(0
.77)
773/
8(9
.5)
200
1739
2(9
95
)4.
5(2
.04)
813/
8(9
.5)
.045
" (1
.2m
m)
9515
54(1
37
)0.
9(0
.41)
741/
2(1
2.7)
150
1711
8(3
00
)2.
1(0
.95)
791/
2(1
2.7)
225
1814
0(3
56
)2.
6(1
.18)
821/
2(1
2.7)
1/16
" (1
.6m
m)
160
1756
(14
2)
2.1
(0.9
5)78
5/8
(15.
9)20
018
76(1
93
) 2
.9(1
.32)
805/
8(1
5.9)
275
1913
2(3
35
) 5
.2(2
.35)
815/
8(1
5.9)
5/64
" (2
.0m
m)
185
1950
(12
7)
2.4
(1.0
9)77
1(2
5.4)
250
2091
(23
1)
4.5
(2.0
4)79
1(2
5.4)
300
2113
5(3
43
)6.
6(2
.99)
811
(25.
4)
NOTE
: DC
EN (E
LEC
TRO
DE
NEG
ATIV
E) O
NLY
. PAR
AMET
ERS
MAY
VAR
Y D
EPEN
DIN
G O
N M
ATER
IAL T
HIC
KNES
S.
GEN-26110_05.p65 7/10/01, 4:02 PM58
5-59
Cor
eshi
eld
11-N
i3 W
eldi
ng D
ata
WIR
E F
EE
DD
EP
OS
ITIO
NE
LEC
TR
ICA
LA
MP
ER
ES
VO
LTS
SP
EE
DR
ATE
% E
FF
ICIE
NC
YS
TIC
KO
UT
IPM
(cm
/min
)lb
s/hr
(kg
/hr)
in (
mm
)
1/16
" (1
.6m
m)
175
1980
(20
3)
3.0
(1.3
6)78
5/8
(15.
9)21
020
110
(28
0)
4.2
(1.9
1)80
5/8
(15.
9)25
021
130
(33
0)
5.1
(2.3
1)81
5/8
(15.
9)
5/64
" (2
.0m
m)
180
1960
(15
2)
2.9
(1.3
2)77
1(2
5.4)
200
2075
(19
1)
3.7
(1.6
8)79
1(2
5.4)
250
2190
(22
9)
4.4
(2.0
)81
1(2
5.4)
NOTE
: DC
EN (E
LEC
TRO
DE
NEG
ATIV
E) O
NLY
. PAR
AMET
ERS
MAY
VAR
Y D
EPEN
DIN
G O
N M
ATER
IAL T
HIC
KNES
S.
GEN-26110_05.p65 7/10/01, 4:02 PM59
5-60
COREWELD ® —Gas Shielded Metal Cored Wires
Coreweld wires have metal powders in the core whichgives them the high deposition rates of flux cored wiresand the high efficiency of solid wires. The only slagproduced by these wires are small silicon islandssimilar to those produced by solid wires.Argon-CO2 gas mixtures of 75% - 92% Argon/25% - 8%CO2 is the recommended shielding gas. Straight CO2may be used for some wires.Coreweld wires are now classified as composite wiresand are covered by AWS Specifications A5.18 for thecarbon or mild steel types and AWS Specification A5.28for the low alloy types as shown below.
OptionalHydrogenDesignator
ChemicalComposition,Weld
Electrode
Min. TensileStrength, ksi
CompositeElectrode
AWS Filler Metal SpecificationA5.28
Low Alloy Composite Electrodesfor Gas Metal Arc Welding
E-X X C - X X X-HZ
AWS Filler Metal SpecificationA5.18
Carbon Steel Composite Electrodesfor Gas Metal Arc Welding
E-X X C - X X-HZShielding Gas:C = CO2
M = ArgonMixtures
ChemicalComposition,Weld Metal
Electrode
Min. TensileStrength, ksi
CompositeElectrode
GEN-26110_05.p65 7/10/01, 4:02 PM60
5-61
Metal Cored Wires“New Technology”Coreweld UltraAWS Class E70C-6M
Code and Specification Data:AWS A5.18, ASME SFA 5.18
Description:Coreweld Ultra is a low fume, metal cored wire. This wireproduces 40% less fume than the conventional metalcored products. The use of higher argon shielding gasfurther reduces fume, spatter and slag islands. Thehigher deposition efficiency and improved welder appealminimizes post weld clean-up.Coreweld Ultra was developed for carbon steels havingtensile strength up to 70 ksi (483 MPa). This metal coredwire is intended for single or multipass welding in theflat and horizontal positions.
Shielding Gas: 75-92% Argon/25-8% CO2
Typical Mechanical PropertiesAs Welded
75% Ar/25% CO2 92% Ar/8% CO2
Yield Strength, psi (MPa) 63,000 (435) 65,000 (449)Tensile Strength, psi (MPa) 72,000 (497) 75,000 (518)% Elongation in 2" (51 mm) 29 29
Typical Charpy V-Notch Impact PropertiesAs Welded
75% Ar/25% CO2 92% Ar/8% CO2Testing Temp. ft.-lbs. (J) ft.-lbs. (J)
0°F (-18°C) 90 (120) 100 (136)-20°F (-29°C) 75 (102) 80 (108)-40°F (-40°C) 60 (81) 70 (95)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S
75% Ar/25% CO2 0.033 1.50 0.55 0.015 0.01792% Ar/8% CO2 0.032 1.54 0.58 0.015 0.017
Standard Diameters .045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)
Recommended Welding Parameters pages 5-69 & 5-70
Additional Approvals pages 5-71 & 5-72
GEN-26110_05.p65 7/10/01, 4:02 PM61
5-62
Coreweld 70AWS Class E70C-6MCode and Specification Data:AWS A5.18, ASME SFA 5.18, CSA W48.5
Description:Coreweld 70 is a tubular wire containing ingredientsprimarily comprised of metal powder along with additionalarc stabilizers and alloying elements. The net result is ahigh efficiency (90 to 98%) wire.Arc characteristics, weld metal transfer, spatter levels areimproved, while silica islands are minimized with the use ofArgon mixtures up to 92% Argon.Due to the high level of iron powder and low slag compo-nents, the only slag formed by this wire are small islands ofsilica.Coreweld 70 wires are available in 0.035" (0.9 mm) through1/8" (3.2 mm) diameters. The small diameters up to 1/16"(1.6 mm) are capable of being welded out-of-position.Coreweld 70 was designed for multipass welding in roboticapplications where slag removal between passes isdifficult. This metal cored product is intended for use oncarbon steels having tensile strengths up to 70 ksi (483MPa).
Shielding Gas: 75-92% Argon/25-8% CO2
Typical Mechanical PropertiesAs Welded
75 Ar/25 CO2 92 Ar/8 CO2
Yield Strength, psi (MPa) 68,000 (469) 79,000 (545)Tensile Strength, psi (MPa) 80,000 (552) 85,000 (587)% Elongation in 2" (51 mm) 28 26% Reduction of Area 67 65
Typical Charpy V-Notch Impact PropertiesAs Weldedft.-lbs. (J)
Testing Temp. 75 Ar/25 CO2 92 Ar/8 CO2
0°F (-18°C) 50 (68) 60 (81)-20°F (-29°C) 40 (54) 50 (68)-40°F (-40°C) 30 (41) 35 (47)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S75% Ar/25% CO2 0.057 1.41 0.56 0.010 0.01992% Ar/8% CO2 0.062 1.50 0.62 0.009 0.019
Standard Diameters.035" (0.9 mm), .045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm),5/64" (2.0 mm), 3/32" (2.4 mm), 1/8" (3.2 mm)
GEN-26110_05.p65 7/10/01, 4:02 PM62
5-63
Metal Cored WiresCoreweld 70-Ni1AWS Class E70C-G
Code and Specification Data:AWS A5.28, ASME SFA 5.28
Description:Coreweld 70-Ni1 is a metal cored wire designed with anominal 1% Ni alloy content. This wire is designedspecifically for the applications that require a minimumof 20 ft.-lbs. (27 J) @-40°F (-40°C) and can be used forwelding pipe, plate, and sheet steels. This versatile wireprovides good sidewall penetration in deep V-grooves. Itis capable of producing both higher deposition andefficiency rates compared to solid wire.
Shielding Gas: 75-92% Argon/25-8% CO2
Typical Mechanical PropertiesAs Welded
75% Ar/25% CO2
Yield Strength, psi (MPa) 73,000 (504)Tensile Strength, psi (MPa) 83,500 (576)% Elongation in 2" (51 mm) 28% Reduction of Area 72
Typical Charpy V-Notch Impact PropertiesAs Welded
75% Ar/25% CO2Testing Temp. ft.-lbs. (J)
-40°F (-40°C) 39 (53)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S Ni
75% Ar/25% CO2 0.031 1.33 0.50 0.014 0.014 0.88
Standard Diameters.035" (0.9 mm), .045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)
Recommended Welding Parameters pages 5-69 & 5-70
Additional Approvals pages 5-71 & 5-72
GEN-26110_05.p65 7/10/01, 4:02 PM63
5-64
Coreweld 80-D2AWS Class E80C-G
Code and Specification Data:AWS A5.28, ASME SFA 5.28
Description:Coreweld 80-D2 is a metal cored wire equivalent toER80S-D2 solid wire. Coreweld 80-D2 produces higherdeposition rates, better wetting action, with an absenceof copper coating on the wire.Coreweld 80-D2 was developed for HSLA steels. Thisproduct is capable of single or multiple pass welding.
Shielding Gas: 75-92% Argon/25-8% CO2
Typical Mechanical Properties
Stress-Relieved8 hrs.
As Welded @1175°F (635°C)75% Ar/25% CO2 75% Ar/25% CO2
Yield Strength, psi (MPa) 77,000 (531) 77,500 (531)Tensile Strength, psi (MPa) 90,000 (621) 90,900 (627)% Elongation in 2" (51 mm) 26 26% Reduction of Area 62 68
Typical Charpy V-Notch Impact PropertiesStress-Relieved
Testing Temp. 8 hrs.As Welded @1175°F (635°C)
75% Ar/25% CO2 75% Ar/25% CO2ft.-lbs. (J) ft.-lbs. (J)
-20°F (-29°C) 34 (46) 25 (34)-40°F (-40°C) 23 (31) — —
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S Mo
75% Ar/25% CO2 0.09 1.48 0.35 0.010 0.018 0.44
Standard Diameters.035" (0.9 mm), .045" (1.2 mm)
Recommended Welding Parameters pages 5-69 & 5-70
Additional Approvals pages 5-71 & 5-72
GEN-26110_05.p65 7/10/01, 4:02 PM64
5-65
Metal Cored WiresCoreweld WAWS Class E80C-G
Code and Specification Data:AWS A5.28, ASME SFA 5.28
Description:Coreweld W is a metal cored wire designed for single ormultipass welding on weathering grade steels.Coreweld W was designed specifically to meet thedemand for weld deposits that color match the low alloy,high strength weathering grade steels, such as A588,A242, U.S.S. Cor-Ten®, and Mayari R®.
Shielding Gas: 75-92% Argon/25-8% CO2
Typical Mechanical PropertiesAs Welded (J)
75% Ar/25% CO2
Yield Strength, psi (MPa) 81,500 (562)Tensile Strength, psi (MPa) 90,000 (621)% Elongation in 2" (51 mm) 26
Typical Charpy V-Notch Impact PropertiesAs Welded (J)
75% Ar/25% CO2Testing Temp. ft.-lbs. (J)
-20°F (-29°C) 38 (52)-60°F (-51°C) 24 (33)
Typical Undiluted Weld Metal Analysis (%)Gas C Mn Si P S Cr Ni Cu
75% Ar/25% CO2 0.04 1.10 0.67 0.008 0.012 0.57 0.67 0.59
Standard Diameters.035" (0.9 mm), .045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)
GEN-26110_05.p65 7/10/01, 4:02 PM65
5-66
Coreweld 80B2AWS Class E80C-B2
Code and Specification Data:AWS A5.28, ASME SFA 5.28
Description:Coreweld 80B2 is a metal cored electrode designed forsingle and multipass welding of steels such as 1/2% Cr-1/2% Mo, 1% Cr-1/2% Mo, and 1-1/4% Cr-1/2% Mo. Thiselectrodes has a high percentage of iron powderresulting in a high efficiency wire with only small islandsof slag on the weld deposit.
Shielding Gas: Argon/75-92%/25-8% CO2
Typical Mechanical Properties w/75-25Stress-Relieved
1 hr.As Welded @1150°F (620°C)
Yield Strength, psi (MPa) 74,000 (510) 76,000 (524)Tensile Strength, psi (MPa) 91,000 (627) 93,000 (641)% Elongation in 2" (51 mm) 25.0 26.0
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Cr Mo
0.035 1.10 0.57 0.010 0.013 1.23 0.51
Standard Diameters.045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm), 5/64” (2.0 mm),3/32” (2.4 mm)
Recommended Welding Parameters pages 5-69 & 5-70
Additional Approvals pages 5-71 & 5-72
GEN-26110_05.p65 7/10/01, 4:02 PM66
5-67
Metal Cored WiresCoreweld 90B3AWS Class E90C-B3
Code and Specification Data:AWS A5.28, ASME SFA 5.28
Description:Coreweld 90B3 is a metal cored electrode designed forsingle and multipass welding of steels such as 2-1/4%Cr-1% Mo. This electrode has a high percentage of ironpowder resulting in a high efficiency wire with only smallislands of slag on the weld deposit.
Shielding Gas: 75-92% Argon/8-25% CO2
Typical Mechanical Properties w/75-25Stress-Relieved Stress-Relieved
1 hr. 8 hrs.@1275°F (690°C)@1275°F (690°C)
Yield Strength, psi (MPa) 80,000 (552) 70,000 (483)Tensile Strength, psi (MPa) 100,000 (689) 85,000 (586)% Elongation in 2" (51 mm) 20 23
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Cr Mo
0.085 0.83 0.50 0.015 0.013 2.36 1.09
Standard Diameters.045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)
GEN-26110_05.p65 7/10/01, 4:02 PM67
5-68
Coreweld 110AWS Class E110C-G
Code and Specification Data:AWS A5.28, ASME SFA 5.28
Description:Coreweld 110 is a metal cored electrode designed forsingle and multipass welding of high strength low alloysteels, such as T-1, HY-80, and HY-100. The arc issmooth with virtually no spatter.Coreweld 110 is recommended for welding quenchedand tempered high strength steels. Because of themetallic core, the wire offers both the high depositionrates of a flux cored electrode and the high efficiencies ofa solid wire.
Shielding Gas: Argon with 8 to 25% CO2, Stargon
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 113,000 (779)Tensile Strength, psi (MPa) 121,000 (834)% Elongation in 2" (51 mm) 20
Typical Charpy V-Notch Impact PropertiesAs Welded
Testing Temp. ft.-lbs. (J)
0°F (-18°C) 35 (47)-60°F (-51°C) 30 (41)
Typical Undiluted Weld Metal Analysis (%)C Mn Si P S Cr Ni Mo
0.05 1.6 0.3 0.016 0.013 0.1 2.5 0.6
Standard Diameters.045" (1.2 mm), .052" (1.4 mm), 1/16" (1.6 mm)
Recommended Welding Parameters pages 5-69 & 5-70
Additional Approvals pages 5-71 & 5-72
GEN-26110_05.p65 7/10/01, 4:02 PM68
5-69
Dat
a re
flect
s us
e of
75%
Argo
n/25
% C
O2
gas
shie
ldin
g.D
epos
ition
Rat
es a
nd E
ffici
en-
cies
will
incr
ease
app
roxi
-m
atel
y 1%
with
use
of
92%
Argo
n/8%
CO
2 sh
ield
ing.
Cor
ewel
d W
eldi
ng D
ata
WIR
E F
EE
DD
EP
OS
ITIO
NA
MP
ER
ES
VO
LTS
SP
EE
DR
ATE
% E
FF
ICIE
NC
YIP
M (c
m/m
in)
lbs/
hr (k
g/hr
)
.035
" (0
.9m
m)
150
2532
0(8
13)
4.4
(1.2
)92
200
2747
2(1
199)
6.5
(2.9
5)92
250
2968
0(1
727)
9.4
(4.2
6)92
.045
" (1
.2m
m)
250
2833
0(8
38)
8.0
(3.6
3)90
275
3043
0(1
092)
11.1
(5.0
3)94
300
3246
4(1
179)
11.6
(5.2
6)94
350
3251
2(1
300)
12.7
(5.7
6)96
.052
" (1
.4m
m)
275
2926
2(6
65)
8.0
(3.6
3)92
300
2931
2(7
92)
9.6
(4.3
5)93
325
3032
8(8
33)
10.1
(4.5
8)93
1/16
" (1
.6m
m)
300
3018
1(4
60)
8.6
(3.9
0)89
350
3024
1(6
12)
11.9
(5.4
0)94
400
3229
3(7
44)
14.6
(6.6
2)94
450
3433
3(8
46)
16.2
(7.3
5)94
5/64
" (2
.0m
m)
350
2716
0(4
06)
11.6
(5.2
6)94
400
2818
5(4
70)
13.2
(5.9
9)95
450
2821
0(5
33)
15.8
(7.1
7)97
500
2928
0(7
11)
20.4
(9.2
5)97
3/32
" (2
.4m
m)
400
3111
5(2
92)
11.5
(5.2
2)95
450
3113
8(3
50)
14.5
(6.5
8)97
500
3215
5(3
94)
16.5
(7.4
8)97
550
3219
7(5
00)
21.0
(9.5
3)98
GEN-26110_05.p65 7/10/01, 4:02 PM69
5-70
Ope
rati
on o
f Cor
ewel
d El
ectr
odes
A co
nsta
nt v
olta
ge p
ower
sou
rce
oper
atin
g D
CEP
(Ele
ctro
de P
ositi
ve) i
s ne
eded
for p
rope
r ope
ratio
n. A
var
iety
of g
asm
ixtu
res
may
be
used
for e
xter
nal s
hiel
ding
of C
orew
eld
70. M
ixtu
res
of 7
5% A
rgon
/25%
CO
2, or
92%
Arg
on/8
% C
O2
prov
ide
very
goo
d ef
ficie
ncie
s an
d sm
ooth
ope
ratin
g ch
arac
teris
tics.
A m
ixtu
re o
f 50%
Arg
on/5
0% C
O2 m
ay b
e us
ed,
but i
s sh
ould
be
note
d th
at a
s th
e pe
rcen
tage
of A
rgon
dec
reas
es, s
patte
r an
d fu
me
leve
ls in
crea
se a
nd a
cha
nge
inm
echa
nica
l pro
perti
es m
ay o
ccur
. A g
as fl
ow r
ate
in th
e ra
nge
of 3
0-40
CFH
is r
ecom
men
ded.
Ele
ctric
al s
ticko
ut (
ESO
)is
the
dist
ance
mea
sure
d fro
m th
e co
ntac
t tip
to th
e w
ork
piec
e. T
he E
SO fo
r .03
5 - 1
/16"
(0.9
- 1.
6mm
) ele
ctro
des
is3/
8 - 3
/4" (
9.5
- 19m
m).
The
ESO
for 5
/64
- 3/3
2" (2
.0 -
2.4m
m) e
lect
rode
s is
3/4
- 1
1/4"
(19
- 32m
m).
Sugg
este
d W
eldi
ng P
aram
eter
sC
orew
eld
Wir
esDI
AMET
ERRA
NGE
STIC
KOUT
OPT
IMU
M (F
lat)
.035
"(0
.9m
m)
23-2
9 V,
130
-260
A3/
8 - 3
/4"(
9.5
- 19m
m)
25 V
, 200
A.0
45"
(1.2
mm
)24
-32
V, 1
50-3
50 A
3/8
- 3/4
"(9.
5 - 1
9mm
)26
V, 2
50 A
.052
"(1
.4m
m)
26-3
2 V,
200
-400
A3/
8 - 3
/4"(
9.5
- 19m
m)
28 V
, 300
A1/
16"
(1.6
mm
)26
-34
V, 3
00-5
00 A
3/8
- 3/4
"(9.
5 - 1
9mm
)30
V, 4
00 A
5/64
"(2
.0m
m)
27-3
3 V,
350
-550
A3/
4 - 1
1/4
"(1
9 - 3
2mm
)30
V, 4
50 A
3/32
"(2
.4m
m)
28-3
4 V,
400
-580
A3/
4 - 1
1/4
"(1
9 - 3
2mm
)32
V, 5
00 A
GEN-26110_05.p65 7/10/01, 4:02 PM70
5-71
Cor
ed W
ire
Age
ncy
App
rova
ls *
PRO
DU
CT
AB
SLL
OYD
SD
NV
BV
CW
BC
ON
TRO
LAS
GER
.LL
OYD
SO
THER
ARC
-70
E480
2T-9
-CH
ARC
-87
2SA,
2YS
A(H
10)
DS
111
RB
2SA,
2YS
A2S
-2YS
II YM
SSA
2YM
2YS
DS
R-7
0 U
LTR
A2S
A, 2
YSA
2S-2
YS(H
15)
II YM
S(H
15)
E480
2T-9
-CH
DS
70 U
LTR
A PL
US
3SA,
3YS
A(H
10)
3S, 3
YS(H
10)
III Y
MS(
H10
)SA
3YM
(HH
)E7
1T-1
M-C
H3Y
H10
S
DS
7000
2SA,
2YS
A2S
-2YS
(H15
)II
YMS
DS
FC-7
173S
A, 3
YSA
& A5
.20:
E71T
-93S
, 3YS
(H10
)E4
801T
-9-C
H
DS
7100
ULT
RA
3SA,
3YS
A3S
-3YS
(H10
)III
YM
SSA
3YM
(H)
E480
1T-9
-CH
CO
NTR
OLA
S3Y
HS
TUV
(E71
T-1)
DEU
TSC
HE
BAH
ND
S 71
00 L
C3S
A, 3
YSA(
H10
)3S
, 3YS
(H10
)III
YM
S(H
10)
DS
8000
-Ni2
3YSA
E81T
1-N
i2-H
8
DS
T-5
3SA,
3YS
A(H
10)
3S-3
YS(H
10)
III Y
MS(
H10
)SA
3YM
(HH
)E4
802T
-5B-
CH
CO
NTR
OLA
S5Y
HH
STU
V (E
70T5
/E71
T5)
DS
II 70
T-12
H4
3SA,
3YS
A(H
5)4Y
40S(
H10
)IV
YM
S(H
5)E7
1T-1
2M-H
164Y
H10
S
DS
II 70
ULT
RA
3SA,
3YS
A(H
5)3Y
-3YS
(H10
)III
YM
S(H
10)
SA3Y
M(H
H)
E71T
-12M
-H16
CO
NTR
OLA
S3Y
HH
STU
V (S
G R
1 M
2Y 4
6 54
) D
EUTS
CH
E BA
HN
GEN-26110_05.p65 7/10/01, 4:02 PM71
5-72
Cor
ed W
ire
Age
ncy
App
rova
ls *
(co
nt’d
.)
PRO
DU
CT
AB
SLL
OYD
SD
NV
BV
CW
BC
ON
TRO
LAS
GER
.LL
OYD
SO
THER
DS
II 71
ULT
RA
3SA,
3YS
A3S
-3YS
H(H
10)
III Y
MS(
H10
)E4
801T
-12-
CH
3Y H
HS
DS
II 80
Ni1
H4
3YSA
(H5)
3S, 4
Y40S
(H10
)IV
YM
S(H
5)E8
1T1-
Ni1
-H8
CO
NTR
OLA
STU
V
DS
II 10
0AW
S A5
.29;
E10
0T1-
K3
DS
II 10
1 TM
IV Y
MS(
H10
)
DS
II 10
1 TC
IV Y
MS(
H10
)
DS
II 11
0AW
S A5
.29;
E11
0T1-
K3
CO
REW
ELD
70
AWS
A5.1
8; E
70C
-6M
3S-3
YS(H
10)
III Y
MS(
H10
)SA
3YM
(HH
)E4
801C
-6-C
HC
ON
TRO
LAS
3Y H
HS
TUV
(E71
T-1)
DEU
TSC
HE
BAH
NC
OR
EWEL
D
ULT
RA
3SA,
3YS
A(H
15)
3S, 3
YS(H
15)
III Y
MS(
H15
)SA
3YM
(H)
E480
1C-6
-CH
3YH
15S
CO
RES
HIE
LD 4
0AW
S A5
.20;
E70
T-4
E480
2T-4
-CH
CO
RES
HIE
LD 7
AWS
A5.2
0; E
70T-
7E4
802T
-7-C
H
CO
RES
HIE
LD 8
3SA,
3YS
A(H
10)
III Y
MS(
H10
)SA
3YM
(HH
)
CO
RES
HIE
LD 8
-Ni1
AWS
A5.2
9; E
71T8
-Ni1
4YS(
H10
)IV
YM
S(H
5)E7
1T8-
Ni1
-H16
6Y42
H5
TUV
(E71
T-8)
DEU
TSC
HE
BAH
NC
OR
ESH
IELD
11
AWS
A5.2
0; E
71T-
11E4
801T
-11-
CH
* App
rova
ls a
re u
pdat
ed o
n an
ann
ual b
asis
. C
onsu
lt Fi
ller M
etal
s M
arke
ting
for t
he la
test
App
rova
l/Gra
de re
visi
ons.
GEN-26110_05.p65 7/10/01, 4:02 PM72
6-1
SUBMERGED ARC PRODUCTSSection 6
DESCRIPTION PAGE
Unionmelt Submerged Arc Fluxes .......................6-2Bonded-High Performance Active Fluxes ............. 6-5Bonded-General Purpose Neutral Fluxes ............. 6-7High Impact Neutral Fluxes ................................... 6-8Fused-General Purpose Fluxes ............................. 6-9Stainless Steel Fluxes .......................................... 6-11Special Purpose Fluxes ....................................... 6-13
Relative Flux Performance ........................... 6-14Storage and Re-Drying Fluxes ..................... 6-15Flux Sizes and Current Ranges .................... 6-16
Spoolarc Submerged Arc Wires ........................6-18Carbon Steel Submerged Arc Wires ................... 6-18Manganese-Molybdenum (Mn-Mo) Wires ........... 6-20Chromium-Molybdenum (Cr-Mo) Wires ............... 6-21Chromium-Molybdenum Composite Wires .......... 6-22Nickel (Ni) Steel Wires ......................................... 6-22Nickel (Ni) Steel Composite Wires ...................... 6-23High Strength Submerged Arc Wires .................. 6-24High Strength Composite Wires .......................... 6-26Special Purpose Composite Wires ...................... 6-28Special Purpose Submerged Arc Wires .............. 6-29Spoolarc Submerged Arc Wire Chemistries ........ 6-30Welding Parameters & Deposition Data Spoolarc Wires ..................... 6-31Welding Parameters & Deposition Data Composite Wire ................... 6-32Weld Metal Mechanical Properties ...................... 6-33Submerged Arc Flux/Wire Agency Approvals ........................................... 6-45
GEN-26110_06.p65 7/10/01, 4:02 PM1
6-2
UNIONMELT ® Submerged ArcFluxesSpoolarc® Solid Wires andALLOY SHIELD ® Composite Wires
The major function of a submerged arc welding fluxis to:• Shield the molten puddle from the atmosphere.• Clean and deoxidize the weld puddle.• Control the chemistry and mechanical properties of the
weld metal.
There are two major methods by which fluxes aremanufactured:
BONDED FLUXES are manufactured by dry mixing theflux ingredients and then bonding them together using aliquid silicate binder. The flux pellets are then baked at arelatively low temperature to drive off the water in thebinder. The major advantages of bonded fluxes are:
• The flux can contain metallic deoxidizers which providegood performance over rust and mill scale.
• The relatively coarse mesh size feeds easily due to itsuniform size.
• Bonded fluxes typically have a lower consumption rate.The use of bonded fluxes are not without limitation. Theyinclude:• Any removal of undersized particles during recycling
can change the overall chemical analysis of a bondedflux and consequently, change the performancecharacteristics of the flux.
• Segregation within the flux can occur, making someparticles richer or leaner in specific ingredients. This isparticularly critical if metals segregate, leading to hardspot formation within the weld metal.
• Bonded fluxes can pick up moisture if stored improp-erly. They must be baked at a temperature between500°-800°F (260°-427°C) to remove any suspectedmoisture.
FUSED FLUXES are manufactured by mixing the ingredi-ents together and then melting them in an electric furnaceto form a homogeneous liquid. The liquid flux is thencooled until solid and ground to a particular size suitablefor the intended use of the flux.The major advantages of fused fluxes include:• Because of the high processing temperature
(> 3000°F/1614°C), all components in the flux becomechemically combined. As a result, fused fluxes provide
GEN-26110_06.p65 7/10/01, 4:02 PM2
6-3
stable welding performance even at high current levels.• Fused fluxes will generally not pick up moisture;
surface moisture condensing on the flux particlesduring storage can be driven off by baking at a lowtemperature (300°F/40°C for 1 hr.).
• Since fused fluxes are pre-melted, they are extremelyhomogeneous and therefore, maintain consistentchemistry throughout the weld deposit.
• Fused flux slag may be crushed and re-used; however,this may result in a loss of operability or mechanicalproperties.
• Fused fluxes provide for the highest travel speeds inwelding.
The major disadvantage for using fused fluxes is:• They contain no metallic deoxidizers, therefore minimiz-
ing their tolerance to rust and mill scale.
Fluxes can be further classified as active or neutral:ACTIVE FLUXES are those fluxes that will cause asubstantial change in the weld metal chemistry whenwelding voltage (and consequently, the amount of fluxfused) is changed. Active fluxes generally add largeamounts of manganese and silicon to the weld metal andcause the weld strength to increase. If an active flux isused for multipass welding, excessive manganese andsilicon build-up can occur, causing the weld to be brittleand crack prone. Active fluxes should be limited in thenumber of passes, especially over rust and mill scale.• When an active flux is used for multipass welding, the
voltage must be carefully controlled to avoid excessivebuild-up of manganese and silicon. Active fluxesshould not be used to multipass weld plates morethan 1" (25 mm) thick.
NEUTRAL FLUXES are fluxes that will not cause asignificant change in the weld metal chemistry even withvariations of welding voltages. Neutral fluxes will notsignificantly affect the strength of the weld metal regard-less of the welding voltage used or the number of passes.As a rule neutral fluxes should be specified for multipasswelding.
GEN-26110_06.p65 7/10/01, 4:02 PM3
6-4
Volt
age
Sens
itiv
ity
Wel
d M
etal
Uni
onm
elt
Spoo
larc
Rec
omm
ende
d M
ax. B
ase
Met
alFl
uxW
ireVo
ltsM
n (%
)Si
(%)
Thic
knes
s in
. (m
m)
231
8128
1.54
0.68
1 (2
5)35
1.90
1.04
1 (2
5)35
081
281.
270.
561
(25)
351.
530.
791
(25)
429
8128
1.32
0.51
Unl
imite
d35
1.45
0.55
Unl
imite
d43
981
281.
300.
24U
nlim
ited
361.
460.
25U
nlim
ited
656
8128
1.26
0.16
Unl
imite
d35
1.24
0.13
Unl
imite
d
GEN-26110_06.p65 7/10/01, 4:02 PM4
6-5
Bonded-High PerformanceActive FluxesUnionmelt 231Description:■ Recommended for use over rust and mill scale.■ Developed for single pass, mechanized or manual fillet
welds.■ Can be used for multipass welds on carbon steel up to
1" (25 mm) thick.■ Free-peeling slag - low postweld cleanup costs.■ Can produce an equal leg horizontal fillet up to 3/8"
(9.5 mm) in a single pass without undercut or rollover.■ Reduced flash through potential at the welding arc.■ Applications include structural steel, thin-wall tanks and
pressure vessels up to 1" (25 mm) thick.■ Capable of depositing a 3/16" (4.8 mm) fillet at 60 ipm
(152 cm/min) travel speed.■ Package size: 50# (22.7 kg) bag■ Suitable for DC welding only.
Unionmelt 350Description:■ Developed for butt and fillet welds on carbon steel
up to 1" (25 mm) thick.■ Performs very well over rust and mill scale.■ Produces smooth weld surfaces and uniform edges
up to 1100 amps.■ Excellent arc stability on AC or DC.■ Can be used as a backing flux for one-sided welding.■ Applications include shipbuilding, pressure vessels and
structural steel plate.■ Package size: 50# (22.7 kg) bag
GEN-26110_06.p65 7/10/01, 4:02 PM5
6-6
Bonded-High PerformanceActive FluxesUnionmelt 282Description:■ Developed for high speed, single pass welding.■ Suitable for thin gauge material when using butt, lap
or fillet weld configurations.■ Balanced chemistry produces welds free from undercut.■ Combined with the proper wire produces porosity-free
welds.■ Capable of depositing a 3/16" (4.8 mm) horizontal fillet
at over 100 ipm (254 cm/min) travel.■ Applications include metallic building beams, thin-wall
tanks and spiral pipe.■ Package size: 50# (22.7 kg) bag
Unionmelt 281Description:■ Designed for high speed, single pass welds (butt, lap,
fillet welds).■ Suitable for boiler tube and metal building fabrication.■ Meet F7AO classification with SA80, 81 and 29S■ Package size: 50# (22.7 kg) bag
GEN-26110_06.p65 7/10/01, 4:02 PM6
6-7
Bonded-General PurposeNeutral FluxesUnionmelt 429Description:■ Neutral bonded flux for single or multipass butt and fillet
welds on a variety of material thicknesses.■ The deposited weld metal produces superior as welded
and stress relieved properties.■ Moderate tolerance of rust and mill scale.■ Exceptional peeling capabilities in deep groove
butt welds.■ Operates on either AC or DC, single or multiple wire
operations.■ Applications include carbon and low alloy steels
commonly found in bridge, structural, pressure vesseland offshore equipment fabrication .
■ Package size: 50# (22.7 kg) bag
Unionmelt 439Description:■ Developed for single or multipass welding on carbon
and some low alloy steels.■ Good performance, good low temperature toughness.■ Performs well on single or multiwire AC or DC welding
systems.■ Applications include both butt and fillet welds on
pressure vessels, spiral pipe, shipbuilding and offshoreoil fabrication.
■ Package size: 50# (22.7 kg) bag
GEN-26110_06.p65 7/10/01, 4:02 PM7
6-8
High Impact NeutralFluxesUnionmelt 656Description:■ Developed for multipass welding on carbon and low
alloy steels.■ Produces excellent low temperature toughness.■ Performs well with single or multiple wires operating on
AC or DC power.■ Applications include structural steel, offshore drilling
equipment, bridge support components, and pressurevessel fabrication.
■ Package size: 50# (22.7 kg) bag.
ESAB OK Flux 10.62
Description:■ For multipass welding on carbon and low alloy steels.■ Produces superior low temperature toughness, includ-
ing CTOD.■ Performs well with single or multiple wires operating on
AC or DC power.■ Applications include offshore drilling equipment,
fracture critical bridge members, ship construction, andpressure vessel fabrication.
■ Package size: 55# (25 kg) bag.
Unionmelt 709-5Description:■ Developed for multipass welding on carbon and low
alloy steels.■ This fused flux produces excellent low temperature
toughness.■ Produces uniform weld metal chemistry without
consideration to welding voltage.■ Low rust and mill scale tolerance - should be used on
clean material.■ Non-hygroscopic - low moisture absorption.■ Applications include pressure vessels, boiler construc-
tion and heat treatable steel fittings.■ Usable on single wire operations with DC power only.■ Package size: 50# (22.7 kg) bag
GEN-26110_06.p65 7/10/01, 4:02 PM8
6-9
Fused-General PurposeFluxesUnionmelt 50Description:■ Developed for high speed welding on thin gauge metal.■ Excellent performance characteristics, self-peeling slag.■ Low rust and mill scale tolerance.■ Non-hygroscopic - low moisture absorption.■ Applications include both joining and surfacing; i.e.,
thin wall tanks/cylinders, buildup on rollers, drill stems.■ Usable up to 1000 amps with AC or DC power.■ Package size: 50# (22.7 kg) bag
Unionmelt 60Description:■ Developed for butt and fillet welds at high current
levels.■ Performs well with single or multiple wires, using AC or
DC power.■ Moderate tolerance to rust and mill scale.■ Non-hygroscopic - low moisture absorption.■ Applications include structural steel, shipbuilding and
small diameter pipe.■ Package size: 50# (22.7 kg) bag
Unionmelt 80Description:■ Developed for use on butt welds of unlimited thickness.■ Good as welded and stress relieved impact toughness.■ Low tolerance to rust and mill scale.■ Non-hygroscopic - low moisture absorption.■ Applications include carbon and low alloy steels found
on pressure vessel valves and fittings .■ Usable on AC or DC, single or multiwire processes.■ Package size: 50# (22.7 kg) bag
GEN-26110_06.p65 7/10/01, 4:02 PM9
6-10
Fused-General PurposeFluxesUnionmelt 124Description:■ Developed for use on clean plates of unlimited
thickness.■ Good as welded and stress relieved impact toughness.■ Non-hygroscopic - low moisture absorption.■ Applications include heavy wall pressure vessels and
boilers on both carbon and low alloy steels.■ Can also be used on heat treatable carbon steel fittings
and for electroslag welding.■ Usable on AC or DC, single or multiwire processes.■ Package size: 50# (22.7 kg) bag.
GEN-26110_06.p65 7/10/01, 4:02 PM10
6-11
Stainless SteelFluxesESAB OK Flux 10.92Description:■ Neutral chromium compensating bonded flux.■ Developed for butt welding stainless strip cladding with
austenitic strips.■ Basicity index 1.0■ Can be used with ARCALOY ER308L, ER309L and
ER316L grade wires.■ Package size: 44# (20 kg) bag
ESAB OK Flux 10.93Description:■ Basic non-alloying bonded flux.■ Developed for joining stainless, high alloyed CrNi,
CrNiMo, and duplex steels.■ Basicity index 1.7■ Can be used with ARCALOY ER308L, ER309L,
ER316L, MC308L, MC309L, MC316L and 2209 gradewires.
■ Package size: 44# (20 kg) bag
ESAB OK Flux 10.94Description:■ Basic chromium compensating bonded flux.■ Developed for butt welding stainless, high alloyed
CrNiMo, and super duplex steels■ Basicity index 1.7■ Can be used with ARCALOY ER308L, ER309L,
ER316L and OK 16.88 (super duplex) grade wires.■ Package size: 44# (20 kg) bag
ESAB OK Flux 10.95Description:■ Basic nickel compensating bonded flux.■ Developed for joining stainless steels where improved
low temperature impact toughness is required.■ Basicity index 1.7■ Can be used with ARCALOY ER308L and ER316L
grade wires.■ Package size: 44# (20 kg) bag
GEN-26110_06.p65 7/10/01, 4:02 PM11
6-12
Stainless SteelFluxes
ESAB OK Flux 10.63Description:■ Fully basic bonded flux.■ Developed for multipass, creep resistant steels
(P91 type) and other 9% CrMo materials.■ Basicity index 3.2■ Very low impurity level, ideal for step cooling
application■ Can be used with ARCALOY ER90SB-9 wire.■ Package size: 44# (20 kg) bag
Unionmelt 601Description:■ Basic neutral bonded flux.■ Developed for joining and multipass overlay and
buildup on stainless steels.■ Basicity index 2.4■ Can be used with type 420 and modified stainless steel
wires.■ Package size: 50# (22.7 kg) bag
GEN-26110_06.p65 7/10/01, 4:02 PM12
6-13
Special PurposeFluxesUnionmelt 55Description:■ Developed for butt and fillet welds on thin gauge
material at extremely high travel speeds.■ Good performance and sound weld deposits at speeds
up to 200 ipm (508 cm/min).■ Performance is enhanced when used on clean base
material.■ Non-hygroscopic - low moisture absorption.■ Applications include hot water tanks and tube-to-tube
construction on heat exchangers.■ Package size: 50# (22.7 kg) bag
GEN-26110_06.p65 7/10/01, 4:02 PM13
6-14
Relative Flux PerformanceBest
Use Over RustUnionmelt 231
Unionmelt 350
Unionmelt 429
Unionmelt 60
Unionmelt 50, 55
Peeling On FilletsUnionmelt 231
Unionmelt 429
Unionmelt 350, 439
Unionmelt 50, 60
Unionmelt 80, 124
Unionmelt 709-5
Peeling From Narrow GroovesUnionmelt 429, 231
Unionmelt 439
Unionmelt 656, OK 10.62
High Speed GaugeUnionmelt 55
Unionmelt 282, 231
Unionmelt 50
Unionmelt 231
Unionmelt 60
Multipass, High ToughnessUnionmelt OK 10.62
Unionmelt 656, 709-5
Unionmelt 124, 439
Unionmelt 80, 429
GEN-26110_06.p65 7/10/01, 4:02 PM14
6-15
Stor
ing
and
Re-
Dry
ing
Subm
erge
d A
rc F
luxe
sU
nion
mel
t bag
s ar
e de
sign
ed to
redu
ce th
e am
ount
of m
oist
ure
intru
sion
, whe
n th
ey a
re c
ompl
etel
y cl
osed
. The
y ar
e pr
ovid
ed w
ithla
yers
of p
aper
, as
wel
l as
a fil
m o
f pla
stic
to h
elp
reta
rd m
oist
ure
pene
tratio
n. H
owev
er, w
hen
the
bags
are
ope
ned
or if
they
bec
ome
punc
ture
d, th
ey s
houl
d be
kep
t in
a cl
osed
con
tain
er in
ord
er to
ens
ure
that
the
prod
ucts
rem
ain
low
in m
oist
ure.
If th
e flu
x be
com
es e
xpos
ed to
hum
idity
, it c
an b
e re
-drie
d. R
e-dr
ying
flux
can
ofte
n re
stor
e it
to it
s or
igin
al, a
s-m
anuf
actu
red
cond
i-tio
n. In
the
case
of f
used
sub
mer
ged
arc
fluxe
s, a
re-d
ryin
g te
mpe
ratu
re o
f a m
inim
um o
f 300
°F (1
49°C
) is
reco
mm
ende
d to
ass
ure
the
moi
stur
e is
redu
ced
to it
s or
igin
al le
vels
. For
bon
ded
fluxe
s, a
min
imum
of 5
00°F
. (26
0°C
) is
reco
mm
ende
d. F
or b
onde
d flu
x, it
isim
porta
nt n
ot to
exc
eed
1000
°F (5
38°C
), or
the
wel
ding
cha
ract
eris
tics
of th
e flu
x m
ay s
uffe
r.W
hen
re-d
ryin
g th
e flu
x, it
is im
porta
nt th
at th
e co
mpl
ete
mas
s be
bro
ught
up
to th
e te
mpe
ratu
re d
esig
ned.
If th
e flu
x is
hel
d in
larg
eco
ntai
ners
, thi
s ca
n ta
ke a
ver
y lo
ng ti
me
- per
haps
ove
r 24
hour
s. In
thin
laye
rs, r
educ
tion
in m
oist
ure
can
be a
ccom
plis
hed
in a
slit
tle a
s on
e ho
ur, f
or e
xam
ple,
in la
yers
one
or t
wo
inch
es th
ick.
The
re-d
ryin
g te
mpe
ratu
re a
nd ti
me,
ther
efor
e, a
re d
epen
dent
on
the
amou
nt o
f moi
stur
e co
ntam
inat
ion
and
the
thic
knes
s of
the
flux
bed
bein
g dr
ied.
Flux
Han
dlin
g C
ondi
tion*
Hol
ding
Baki
ngTy
pe(O
pene
d Ba
gs)
(Rec
ondi
tioni
ng)
Fuse
d25
0°F
(121
°C)
Min
. 300
°F (1
49°C
)Bo
nded
250°
F(1
21°C
)M
in. 5
00°F
(260
°C)
Max
. 100
0°F
(538
°C)
*Th
e ac
tual
bak
ing
time
and
tem
pera
ture
s ar
e a
func
tion
of th
e am
ount
of m
oist
ure.
GEN-26110_06.p65 7/10/01, 4:02 PM15
6-16
Stan
dard
Siz
es a
nd C
urre
nt R
ange
s of
Uni
onm
elt
Subm
erge
d A
rc F
luxe
sC
urre
nt R
ange
(Am
ps)
Uni
onm
elt
Perfo
rman
ceFl
uxG
roup
Up
To 6
0060
0-80
080
0-11
0011
00-1
750
Ove
r 175
023
1H
igh
Goo
dG
ood
Goo
dN
/RN
/R35
0Pe
rform
ance
Goo
dG
ood
Goo
dN
/RN
/R28
1B
onde
d -
Goo
dG
ood
Goo
dN
/RN
/R28
2A
ctiv
eG
ood
Goo
dG
ood
N/R
N/R
429
Gen
eral
Pur
pose
Goo
dG
ood
Goo
dN
/RN
/R43
9B
onde
d -
Goo
dG
ood
Goo
dN
/RN
/RN
eutra
lO
K 10
.62
High
Impa
ctG
ood
Goo
dG
ood
N/R
N/R
656
Goo
dG
ood
Goo
dN
/RN
/R70
9-5
12 x
150
12 x
150
N/R
N/R
N/R
50G
ener
al8
x 48
8 x
4812
x 1
50N
/RN
/RPu
rpos
e12
x 1
5032
x D
60Fu
sed
12 x
150
12 x
150
12 x
150
12 x
150
N/R
8012
x 6
512
x 6
520
x 2
0065
x 2
0020
x D
20 x
200
65 x
200
20 x
D20
x D
124
20 x
150
20 x
150
20 x
150
N/R
N/R
GEN-26110_06.p65 7/10/01, 4:02 PM16
6-17
Cur
rent
Ran
ge (A
mps
)U
nion
mel
tPe
rform
ance
Flux
Gro
upU
p To
600
600-
800
800-
1100
1100
-175
0O
ver 1
750
Spec
ial
55Pu
rpos
e40
x 1
5040
x 1
5040
x 1
50N
/RN
/R
NO
TE:
Exce
pt fo
r hea
vy fi
llet w
elds
, whe
n tw
o or
mor
e si
zes
are
liste
d, th
e fir
st-m
entio
ned
size
is p
refe
rred.
For h
eavy
fille
ts a
nd p
lug
wel
ds, a
fine
mes
h si
ze is
pre
ferre
d ev
en w
ith lo
w c
urre
nts.
Thi
s te
nds
to p
rom
ote
quie
ter w
eldi
ng a
ctio
n,sm
ooth
er a
nd w
ider
wel
d su
rface
s, le
ss u
nder
cutti
ng, a
nd re
duce
d pe
netra
tion.
Fine
r siz
es a
lso
prod
uce
bette
r wel
d ed
ge w
ettin
g in
mul
tipas
s w
elds
and
are
use
d ev
en w
hen
low
wel
ding
cur
rent
s ar
e em
ploy
ed.
N/R
— N
ot R
ecom
men
ded
Stan
dard
Siz
es a
nd C
urre
nt R
ange
s of
Uni
onm
elt
Subm
erge
d A
rc F
luxe
s(c
ont’d
.)
Rul
es o
f T
hum
b fo
r Fl
ux S
elec
tion
■U
se o
nly
neut
ral f
luxe
s fo
r mul
tipas
s w
elds
mor
e th
an 1
inch
thic
k.■
Activ
e flu
xes
are
best
for l
imite
d pa
ss w
eldi
ng, e
spec
ially
ove
r rus
t and
mill
sca
le.
■W
hen
wel
ding
at c
urre
nts
grea
ter t
han
1000
am
ps, f
used
flux
es p
erfo
rm b
ette
r tha
n bo
nded
flux
es.
■Ac
tive
fluxe
s sh
ould
not
be
used
if a
wel
dmen
t has
a m
axim
um a
llow
ed h
ardn
ess,
esp
ecia
lly if
the
conc
ern
is s
tress
cor
rosi
oncr
acki
ng.
GEN-26110_06.p65 7/10/01, 4:02 PM17
6-18
Spoolarc Submerged Arc WiresCarbon SteelSubmerged Arc WiresSpoolarc 80AWS Class EL12Description:■ Low manganese and silicon wire■ Excellent ductility and crack resistance - recommended for
restrained welds and good machinability.■ Application sinclude high speed lap welds, build-up or
repair welding prior to machining.■ Used with Unionmelt 80, 350, 350M and 231 fluxes.■ Wire diameters: 1/16" (1.6 mm), 5/64" (2.0 mm), 3/32"
(2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm) & 3/16" (4.8 mm).
Spoolarc 29SAWS Class EM13KDescription:■ Moderate amount of manganese and silicon for rust and
mill scale tolerance.■ Ideally suited for high speed single pass welding on light
gauge steels.■ Higher silicon providees for good wetting action and even
weld bead profile.■ Some caution should be taken when used with an
active flux.■ Applications include metal buildings, spiral pipe,
hot water tanks, and pressure vessel construction.■ Used with Unionmelt 281, 282, 231, 429, 439, and 656
fluxes.■ Wire diameters: 1/16" (1.6 mm), 5/64" (2.0 mm), 3/32"
(2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm) & 3/16" (4.8 mm).
Spoolarc 86AWS Class EH11KDescription:■ High manganese and silicon.■ Provides good strength and toughness after stress relief.■ Primarily used for pressure vessel fabrication.■ Used with Unionmelt 656■ Wire diameters: 1/16" (1.6 mm), 5/64" (2.0 mm), 3/32"
(2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm) & 3/16" (4.8 mm).
Recommended Welding Parameters page 6-31
GEN-26110_06.p65 7/10/01, 4:02 PM18
6-19
Carbon SteelSubmerged Arc WiresSpoolarc 81AWS Class EM12KDescription:■ Medium manganese and silicon wire - nominal rust
and mill scale tolerance.■ For general purpose welding on low and medium carbon
steels.■ Applications include structural steels, medium
strength pressure vessels, ship, barge and offshoreoil rig fabrication.
■ Used with Unionmelt 50, 60, 80, 429, 439, 231, 350, 656and OK 10.62 fluxes.
■ Wire diameters: 1/16" (1.6 mm), 5/64" (2.0 mm), 3/32" (2.4mm), 1/8" (3.2 mm), 5/32" (4.0 mm) & 3/16" (4.8 mm).
Spoolarc 36AWS Class EH14Description:■ High manganese wire for single or multipass welding.■ Best mechanical properties, both as welded and stress
relieved, are possible when used with a neutral fused flux.■ Spoolarc 36 can also be used for electroslag welding on
mild steel.■ Applications include seam welding on hot water tanks,
valves and fittings, and heavy vessel fabrication,.■ Used with Unionmelt 50, 60, 80, and 124 fluxes.■ Wire diameters: 1/16" (1.6 mm), 5/64" (2.0 mm), 3/32" (2.4
mm), 1/8" (3.2 mm), 5/32" (4.0 mm) & 3/16" (4.8 mm).
Spoolarc 53AWS Class EH12KDescription:■ Designed for single or multipass welding on carbon and
low alloy steels.■ Provides higher strength deposits with moderate rust and
mill scale tolerance.■ Produces good impact toughness.■ Usable with Unionmelt 429, 439, 656 and OK 10.62
fluxes.■ Applications include tank cars, pressure vessels and
offshore structures.■ Wire diameters: 3/32" (2.4 mm), 1/8" (3.2 mm),
5/32" (4.0 mm) & 3/16" (4.8 mm).
GEN-26110_06.p65 7/10/01, 4:02 PM19
6-20
Manganese-Molybdenum (Mn-Mo)Submerged Arc WiresSpoolarc 40AAWS Class EA1Description:■ Designed for single or multipass welding of carbon and
low alloy steels.■ Applications include pressure vessel fabrication and other
similar welds that require postweld heat treatment■ This wire meets Military Type F7A2-EA1-A2-N,
MIL-E-23765/4 specifications (with 429 flux).■ Used with Unionmelt 80 and 429 flux.■ Wire diameters: 1/16" (1.6 mm), 3/32" (2.4 mm),
1/8" (3.2 mm), 5/32" (4.0 mm) & 3/16" (4.8 mm).
Spoolarc 40BAWS Class EA2Description:■ Designed for single or multipass welding of carbon
and low alloy steels.■ Produces good as welded and stress relieved impact
toughness.■ Weld metal tensile strength is in excess of 70 ksi (483 MPa).■ Applications include pressure vessel fabrication and other
similar welds that require postweld heat treatment.■ Usable with Unionmelt 80, 429, 709-5 fluxes.■ Wire diameters: 1/16" (1.6 mm), 3/32" (2.4 mm),
1/8" (3.2 mm), 5/32" (4.0 mm) & 3/16" (4.8 mm).
Spoolarc 40AWS Class EA3Description:■ Designed for single or multipass wire for welding carbon
and low alloy steels.■ Produces good as welded and stress relieved impact
toughness.■ Weld metal tensile strength is in excess of 80 ksi (552 MPa).■ Applications include pressure vessel fabrication and other
similar welds that require postweld heat treatment.■ Usable with Unionmelt 80, and 124 fluxes.■ Wire diameters: 1/16" (1.6 mm), 3/32" (2.4 mm),
1/8" (3.2 mm), 5/32" (4.0 mm) & 3/16" (4.8 mm).
GEN-26110_06.p65 7/10/01, 4:02 PM20
6-21
Chromium-Molybdenum (Cr-Mo)Submerged Arc WiresSpoolarc U515AWS Class EB2Description:■ Designed for use on low alloy steels up to 1-1/4% Cr -
1/2% Mo.■ Applications include process piping, heat exchangers,
pressure vessel fabrication and cast iron pipe moldrebuilding
■ Usable with Unionmelt 80, 709-5 and 429 fluxes.■ Wire diameters: 3/32" (2.4 mm), 1/8" (3.2 mm),
5/32" (4.0 mm) & 3/16" (4.8 mm).
Spoolarc U521AWS Class EB3Description:■ Designed for use on low alloy steels up to 2-1/2% Cr -
1% Mo.■ Applications include process piping, heat exchangers
and pressure vessel fabrication.■ Usable with Unionmelt 80 and 709-5 fluxes.■ Wire diameters: 3/32" (2.4 mm), 1/8" (3.2 mm),
5/32" (4.0 mm) & 3/16" (4.8 mm).
Recommended Welding Parameters pages 6-31 & 6-32
GEN-26110_06.p65 7/10/01, 4:02 PM21
6-22
Chromium-Molybdenum (Cr-Mo)Composite WiresAlloy Shield B2SAWS Class ECB2Description:■ Fabricated composite wire.■ Designed for single or multipass welds on 1-1/4% Cr -
1/2% Mo steels.■ Applications include pressure vessels, process piping,
and heat exchangers.■ Use with Unionmelt 80 flux.■ Wire diameters: 1/8" (3.2 mm) & 5/32" (4.0 mm)
Alloy Shield B3SAWS Class ECB3Description:■ Fabricated composite wire.■ Designed for single or multipass welds on 2-1/4% Cr -
1% Mo steels.■ Applications include pressure vessels, process piping,
and heat exchangers.■ Use with Unionmelt 80 flux.■ Wire diameters: 1/8" (3.2 mm) & 5/32" (4.0 mm)
Nickel (Ni) Steel Submerged Arc WiresSpoolarc ENi4AWS Class ENi4Description:■ Designed for single or multipass welding on high strength
steels.■ Produces good low temperature toughness on a variety of
base materials.■ Weld metal tensile strengths are in excess of 90 ksi (620
MPa) in both the as welded and stress relieved conditions.■ Applications include pressure vessels, offshore oil rigs,
bridges, and other structural steel fabrication.■ Usable with Unionmelt 429, 439, 709-5, and 656 fluxes.■ Wire diameters: 3/32" (2.4 mm), 1/8" (3.2 mm),
5/32" (4.0 mm) & 3/16" (4.8 mm).
GEN-26110_06.p65 7/10/01, 4:02 PM22
6-23
Nickel (Ni) SteelComposite WiresAlloy Shield Ni1SAWS Class ECNi1Description:■ Fabricated composite wire■ Designed for single and multipass welding on carbon and
1% Ni steels.■ Produces good mechanical properties on welds that
require low temperature toughness.■ Applications include offshore oil rig equipment,
shipbuilding, and other similar fabrication.■ Use with Unionmelt 656 flux.■ Wire diameters: 1/8" (3.2 mm) & 5/32" (4.0 mm).
Alloy Shield Ni2SAWS Class ECNi2Description:■ Fabricated composite wire■ Designed for single and multipass welding on
2-1/2% - 2-3/4% Ni steels.■ Produces good mechanical properties on welds that
require low temperature toughness.■ Applications include offshore oil rig equipment,
shipbuilding, and earthmoving equipment.■ Use with Unionmelt 656 flux.■ Wire diameters: 1/8" (3.2 mm) & 5/32" (4.0 mm).
Recommended Welding Parameters page 6-32
GEN-26110_06.p65 7/10/01, 4:02 PM23
6-24
High StrengthSubmerged Arc WiresSpoolarc 44AWS Class EF2Description:■ Designed for single or multipass welding where high
strength and impact toughness is required.■ Maintains weld metal tensile strengths of more than 80
ksi (552 MPa) after long term stress relieving(50 hrs or more).
■ The presence of Ni in the wire chemistry helps increaselow temperature impact toughness.
■ Applications include pressure vessels, structuralsupports, and some heat treatable valves and fittings.
■ Usable with Unionmelt 80, 124 and 709-5 fluxes.■ Wire diameters: 1/16" (1.6 mm), 5/64" (2.0 mm),
3/32" (2.4 mm), 1/8" (3.2 mm), 5/32" (4.0 mm)& 3/16" (4.8 mm).
Spoolarc 95AWS Class EM2Description:■ Designed for single or multipass welding where high
strength and impact toughness is required.■ Primary use for military grade steels such as HY-80.■ This wire meets Military Type 100S-1, MIL-E-23765/2
specifications.■ Applications include military tanks, ships and other
similar fabrication.■ Used with Unionmelt 709-5, 656 and OK 10.62 fluxes.■ Wire diameters: 5/64" (2.0 mm), 3/32" (2.4 mm),
1/8" (3.2 mm), 5/32" (4.0 mm) & 3/16" (4.8 mm).
Recommended Welding Parameters page 6-31
GEN-26110_06.p65 7/10/01, 4:02 PM24
6-25
High StrengthSubmerged Arc WiresSpoolarc 120AWS Class EM4Description:■ Designed for high strength quenched and tempered
steels.■ Weld metal mechanical properties produce high tensile
strengths (exceeds 120 ksi - 825 MPa).■ This wire meets Military Type 120S-1, MIL-E-23765/2
specification.■ Applications include military tanks, ships, submarines,
and other similar fabrication.■ Usable with Unionmelt 709-5, 656 and OK 10.62 flux.■ Wire diameters: 5/64" (2.0 mm), 3/32" (2.4 mm),
1/8" (3.2 mm), & 5/32" (4.0 mm).
Recommended Welding Parameters page 6-31
GEN-26110_06.p65 7/10/01, 4:02 PM25
6-26
High StrengthComposite WiresAlloy Shield M2SAWS Class ECM2Description:■ Fabricated composite wire.■ Designed for high strength steels such as T-1.■ Produces good mechanical properties with tensile
strength in excess of 110 ksi (759 MPa) as well asgood low temperature impact toughness.
■ Applications include earthmoving equipment, draglines,crane booms and shipbuilding construction.
■ Use with Unionmelt 656 flux.■ Wire diameters: 3/32" (2.4 mm), 1/8" (3.2 mm)
& 5/32" (4.0 mm).
Alloy Shield M3SAWS Class ECM3Description:■ Fabricated composite wire.■ Designed for high strength steels such as T-1 and other
similar materials.■ Produces good mechanical properties with tensile
strength in excess of 110 ksi (759 MPa) as well asgood low temperature impact toughness.
■ Applications include earthmoving equipment, railcarand ship fabrication.
■ Use with Unionmelt 656 flux.■ Wire diameters: 3/32” (2.4 mm), 1/8” (3.2 mm) & 5/32”
(4.0 mm).Alloy Shield F2S
Recommended Welding Parameters page 6-32
GEN-26110_06.p65 7/10/01, 4:02 PM26
6-27
High StrengthComposite WiresAlloy Shield F2SAWS Class ECF2For additional agency approvals, see page 36.Description:■ Fabricated composite wire.■ Designed for SAE 4130 and other similar quenched and
tempered steels.■ Produces good mechanical properties in both as
welded and stress relieved condition.■ Applications include oil field drilling equipment and
other similar heat treatable materials.■ Use with Unionmelt 709-5 flux.■ Wire diameters: 3/32" (2.4 mm) & 1/8" (3.2 mm).
Recommended Welding Parameters page 6-32
GEN-26110_06.p65 7/10/01, 4:02 PM27
6-28
Special PurposeComposite WiresAlloy Shield WSAWS Class ECWDescription:■ Fabricated composite wire.■ Designed for welding weathering grade steels.■ Weld metal chemistry produces good “color match”
and “weathering resistance” on unpainted surfaces.■ Applications include butt and fillet welds on weathering
grade steels such as A588, A242, Cor-Ten®, Mayari R®
for structural welding, conveying systems, andarchitectural fabrication.
■ Usable with Unionmelt 656 flux.■ Wire diameters: 3/32" (2.4 mm) & 5/32" (4.0 mm).
Alloy Shield 420SBNo AWS ClassDescription:■ Fabricated composite wire.■ Designed for overlays or hard surfacing applications.■ Hardness varies with heat input, number of welding
passes, and base metal type.■ Applications include continuous caster rolls,
pickler rolls, crane wheels, and other similar steelmill requirements.
■ Wire diameters: 1/8" (3.2 mm) & 5/32" (4.0 mm).
GEN-26110_06.p65 7/10/01, 4:02 PM28
6-29
Special PurposeSubmerged Arc WiresSpoolarc WSAWS Class EWDescription:■ Designed for single or multipass welding on weathering
grade steels.■ Produces weld metal properties that meet “AASHTO”
fracture critical code requirements for both mechanicalproperties and low temperature impact toughness.
■ Weld metal chemistry produces good “color match”and “weathering resistance” on unpainted surfaces.
■ Applications include butt and fillet welds on weatheringgrade steels such as A588, A242, Cor-Ten®, Mayari R®
for structural welding, conveying systems, andarchitectural fabrications.
■ Usable with Unionmelt 429, 439 and 656 fluxes.■ Wire diameters: 5/64" (2.0 mm), 3/32" (2.4 mm),
1/8" (3.2 mm), 5/32" (4.0 mm) & 3/16" (4.8 mm).
Recommended Welding Parameters page 6-31
GEN-26110_06.p65 7/10/01, 4:02 PM29
6-30
Spo
olar
c S
ubm
erge
d A
rc W
ire
Che
mis
trie
s (T
ypic
al)
Wire
AW
SC
Mn
SiP
SC
rN
iM
oC
uSp
oola
rc 8
0EL
-12
0.10
0.44
0.04
0.00
30.
014
0.16
Spoo
larc
81
EM 1
2K0.
110.
950.
260.
006
0.00
80.
34Sp
oola
rc 2
9SEM
13K
0.09
0.98
0.52
0.00
80.
012
0.28
Spoo
larc
53
EH12
K0.
111.
500.
360.
008
0.01
00.
25Sp
oola
rc 8
6EH
11K
0.09
1.47
0.84
0.00
80.
014
0.24
Spoo
larc
36
EH14
0.16
1.96
0.02
0.01
40.
016
0.32
Spoo
larc
WS
EW0.
100.
470.
220.
006
0.01
50.
600.
690.
56Sp
oola
rc E
Ni4
ENi4
0.14
0.71
0.20
0.00
40.
009
1.72
0.15
0.19
Spoo
larc
95
EM2
0.05
1.63
0.31
0.00
60.
005
0.12
1.71
0.34
Spoo
larc
120
EM4
0.07
1.55
0.35
0.00
60.
008
0.45
2.40
Spoo
larc
40A
EA1
0.08
0.85
0.03
0.01
70.
015
0.53
0.25
Spoo
larc
40B
EA2
0.10
1.15
0.03
0.01
70.
015
0.53
0.25
Spoo
larc
40
EA3
0.15
2.00
0.03
0.01
70.
015
0.53
0.25
Spoo
larc
44
EF2
0.13
2.05
0.05
0.01
00.
010
0.65
0.50
0.25
Spoo
larc
U51
5EB
20.
100.
650.
180.
010
0.01
01.
500.
500.
25Sp
oola
rc U
521
EB3
0.07
0.58
0.18
0.01
00.
010
2.55
0.13
1.00
0.25
GEN-26110_06.p65 7/10/01, 4:02 PM30
6-31
RecommendedWelding Parameters for
Spoolarc Submerged Arc WiresElectrodeDiameter Current Voltagein. (mm) Range Range
1/16 (1.6) 150-500 22-305/64 (2.0) 175-600 24-323/32 (2.4) 250-700 26-345/32 (4.0) 400-1000 28-38
Deposition Data forSpoolarc Submerged Arc Wires*
(1"/25.4 mm ESO)Deposition
Diameter Rate Efficiencyin. (mm) Amps lbs/hr kg/hr %
1/16 (1.6) 400 13.0 (5.90)500 17.0 (7.71)
5/64 (2.0) 300 10.8 (4.90)400 14.5 (6.58)500 18.2 (8.26)
3/32 (2.4) 400 13.2 (5.99)500 17.0 (7.71)600 22.0 (9.98)
1/8 (3.2) 400 11.0 (4.99)500 14.5 (6.58)600 18.0 (8.16)700 21.2 (9.62)
5/32 (4.0) 500 12.5 (5.67)600 16.0 (7.26)700 19.5 (8.85)800 23.0 (10.43)900 26.0 (11.79)
3/16 (4.8) 600 13.9 (6.31)700 17.5 (7.94)800 21.0 (9.53)900 25.0 (11.34)
1,000 29.2 (13.25)1,100 34.0 (15.42)
*NOTE: Deposition Rates can vary ±10% with the useof different fluxes.
ASSUME
9 9 %
EFFICIENCY
GEN-26110_06.p65 7/10/01, 4:02 PM31
6-32
RecommendedWelding Parameters forAlloy Shield CompositeSubmerged Arc Wires
Electrode ElectricalDiameter Current Voltage Stick-Outin. (mm) Range Range in. (mm)
3/32 (2.4) 300-600 28-34 3/4-2(19-51)
1/8 (3.2) 400-700 29-36 1- 2-1/4(25-57)
5/32 (4.0) 450-800 30-38 1- 2-3/4(25-70)
Deposition Data forAlloy Shield CompositeSubmerged Arc Wires*
Electrode Optimum Electrical DepositionDiameter Current Stick-Out lbs./hr.in. (mm) Range in. (mm) (kg/hr)
3/32 (2.4) 450-600 1-1/4 (32) 14-21(6.4-9.5)
1-1/2 (38) 15-24(6.8-10.9)
2 (51) 17-29(7.7-13.2)
1/8 (3.2) 450-650 1-1/4 (32) 12-19(5.4-8.6)
1-3/4 (44) 13-21(5.9-9.5)
2-1/4 (57) 15-27(6.8-12.2)
5/32 (4.0) 550-750 1-1/2 (38) 15-26(6.8-11.8)
2 (51) 17-29(7.7-13.2)
2-3/4 (70) 18-34(8.2-15.4)
*NOTE: Deposition Rates can vary ±10% with the useof different fluxes.
GEN-26110_06.p65 7/10/01, 4:02 PM32
6-33
Wel
d M
etal
Mec
hani
cal P
rope
rtie
sP
late
Str
ess
CV
N -
ft.-
lbs.
(J)
Type
Rel
ief
%1
in.
Tim
eU
TS
YS
Elo
n-(2
5.4
mm
)@
11
50
°FS
pool
arc
ksi
ksi
ga-
72
°F1
0°F
0°F
-20
°F-4
0°F
-60
°F-1
00
°FT
hick
(62
1°C
)W
ire
(MP
a)(M
Pa)
tion
(22
°C)
(-1
2°C
)(-
18
°C)
(-2
9°C
)(-
40
°C)
(-5
1°C
)(-7
3°C
)
Bon
ded-
Hig
h Pe
rfor
man
ce A
ctiv
e Fl
uxes
Uni
onm
elt 2
31 F
lux
A36
AW80
74(5
10)
65(4
50)
28—
—20
——
——
(27)
A516
AW81
86(5
95)
78(5
40)
26—
——
27—
——
(37)
Uni
onm
elt 3
50 F
lux
A36
AW80
83(5
72)
68(4
69)
25—
——
40—
——
(54)
A285
AW81
87(6
00)
75(5
17)
26—
——
31—
——
(42)
GEN-26110_06.p65 7/10/01, 4:02 PM33
6-34
Wel
d M
etal
Mec
hani
cal P
rope
rtie
s (c
ont’d
.)P
late
Str
ess
CV
N -
ft.-
lbs.
(J)
Type
Rel
ief
%1
in.
Tim
eU
TS
YS
Elo
n-(2
5.4
mm
)@
11
50
°FS
pool
arc
ksi
ksi
ga-
72
°F1
0°F
0°F
-20
°F-4
0°F
-60
°F-1
00
°FT
hick
(62
1°C
)W
ire
(MP
a)(M
Pa)
tion
(22
°C)
(-1
2°C
)(-
18
°C)
(-2
9°C
)(-
40
°C)
(-5
1°C
)(-7
3°C
)
Bon
ded-
Gen
eral
Pur
pose
Neu
tral
Flu
xes
Uni
onm
elt 4
29 F
lux
A36
AW81
79(5
45)
69(4
75)
28—
——
39—
——
(53)
1 hr
8173
(505
)61
(420
)27
——
—60
50—
—(8
1)(6
8)AW
40A
88(6
07)
75(5
17)
25—
——
35—
——
(47)
A285
AW29
S83
(570
)70
(485
)27
——
—31
——
—(4
2)A4
41AW
40B
93(6
40)
83(5
70)
26—
——
40—
——
(54)
1 hr
40B
90(6
20)
78(5
40)
26—
——
22—
——
(30)
A537
AWEN
i494
(650
)84
(580
)25
——
—40
32—
—(5
4)(4
3)1
hrEN
i490
(620
)80
(550
)26
——
——
30—
—(4
1)A5
88AW
WS
92(6
34)
80(5
52)
25—
——
30—
——
(41)
GEN-26110_06.p65 7/10/01, 4:02 PM34
6-35
Wel
d M
etal
Mec
hani
cal P
rope
rtie
s (c
ont’d
.)P
late
Str
ess
CV
N -
ft.-
lbs.
(J)
Type
Rel
ief
%1
in.
Tim
eU
TS
YS
Elo
n-(2
5.4
mm
)@
11
50
°FS
pool
arc
ksi
ksi
ga-
72
°F1
0°F
0°F
-20
°F-4
0°F
-60
°F-1
00
°FT
hick
(62
1°C
)W
ire
(MP
a)(M
Pa)
tion
(22
°C)
(-1
2°C
)(-
18
°C)
(-2
9°C
)(-
40
°C)
(-5
1°C
)(-7
3°C
)
Bon
ded-
Gen
eral
Pur
pose
Neu
tral
Flu
xes
(con
t’d.)
Uni
onm
elt 4
39 F
lux
A516
AW81
76(5
24)
63(4
34)
32—
——
—94
——
(127
)1
hr81
68(4
69)
51(3
52)
34—
——
—97
——
(132
)AW
29S
80(5
52)
70(4
83)
30—
——
—47
——
(64)
1 hr
29S
74(5
10)
57(3
93)
31—
——
——
58—
(79)
AW53
88(6
07)
75(5
17)
28—
——
——
50—
(68)
A588
AWW
S88
(607
)78
(538
)26
——
——
52—
—(7
1)
GEN-26110_06.p65 7/10/01, 4:02 PM35
6-36
Wel
d M
etal
Mec
hani
cal P
rope
rtie
s (c
ont’d
.)P
late
Str
ess
CV
N -
ft.-
lbs.
(J)
Type
Rel
ief
%1
in.
Tim
eU
TS
YS
Elo
n-(2
5.4
mm
)@
11
50
°FS
pool
arc
ksi
ksi
ga-
72
°F1
0°F
0°F
-20
°F-4
0°F
-60
°F-1
00
°FT
hick
(62
1°C
)W
ire
(MP
a)(M
Pa)
tion
(22
°C)
(-1
2°C
)(-
18
°C)
(-2
9°C
)(-
40
°C)
(-5
1°C
)(-7
3°C
)
Fuse
d-G
ener
al P
urpo
seU
nion
mel
t 50
Flux
A36
AW36
77(5
30)
66(3
85)
25—
——
28—
——
(38)
AW81
72(4
95)
61(4
20)
27—
—40
35—
——
(54)
(47)
Uni
onm
elt 6
0 Fl
uxA3
6AW
8173
(505
)60
(415
)28
——
—30
——
—(4
1)AW
3675
(515
)64
(440
)26
——
—28
——
—(3
8)U
nion
mel
t 80
Flux
A36
AW80
67(4
60)
57(3
95)
28—
——
52—
——
(70)
AW81
75(5
15)
64(4
40)
30—
——
35—
——
(47)
AW36
78(5
40)
66(4
85)
26—
——
35—
——
(47)
A516
1 hr
.36
70(4
85)
51(3
50)
3192
——
50—
——
(125
)(6
8)
GEN-26110_06.p65 7/10/01, 4:02 PM36
6-37
Wel
d M
etal
Mec
hani
cal P
rope
rtie
s (c
ont’d
.)P
late
Str
ess
CV
N -
ft.-
lbs.
(J)
Type
Rel
ief
%1
in.
Tim
eU
TS
YS
Elo
n-(2
5.4
mm
)@
11
50
°FS
pool
arc
ksi
ksi
ga-
72
°F1
0°F
0°F
-20
°F-4
0°F
-60
°F-1
00
°FT
hick
(62
1°C
)W
ire
(MP
a)(M
Pa)
tion
(22
°C)
(-1
2°C
)(-
18
°C)
(-2
9°C
)(-
40
°C)
(-5
1°C
)(-7
3°C
)
Fuse
d-G
ener
al P
urpo
se (c
ont’d
.)U
nion
mel
t 80
Flux
(con
t’d.)
A204
AW36
78(5
40)
66(4
85)
26—
——
35—
——
(47)
AW40
A72
(496
)56
(386
)28
66—
—30
——
—(8
9)(4
1)1
hr.
40A
69(4
75)
53(3
65)
29—
——
5545
36—
(75)
(61)
(49)
AW40
B82
(565
)68
(469
)26
——
—22
——
—(3
0)1
hr.
40B
81(5
60)
63(4
35)
2555
——
25—
——
(75)
(34)
8 hr
.40
B77
(530
)60
(415
)30
——
—32
——
—(4
3)16
hr.
40B
75(5
17)
58(4
00)
27—
——
29—
——
(39)
AW40
93(6
40)
77(5
30)
25—
—29
——
——
(39)
1 hr
.40
86(5
95)
68(4
70)
28—
3825
——
——
(51)
(34)
8 hr
.40
81(5
60)
64(4
40)
26—
—35
——
——
(47)
GEN-26110_06.p65 7/10/01, 4:02 PM37
6-38
Wel
d M
etal
Mec
hani
cal P
rope
rtie
s (c
ont’d
.)P
late
Str
ess
CV
N -
ft.-
lbs.
(J)
Type
Rel
ief
%1
in.
Tim
eU
TS
YS
Elo
n-(2
5.4
mm
)@
11
50
°FS
pool
arc
ksi
ksi
ga-
72
°F1
0°F
0°F
-20
°F-4
0°F
-60
°F-1
00
°FT
hick
(62
1°C
)W
ire
(MP
a)(M
Pa)
tion
(22
°C)
(-1
2°C
)(-
18
°C)
(-2
9°C
)(-
40
°C)
(-5
1°C
)(-7
3°C
)
Fuse
d-G
ener
al P
urpo
se (c
ont’d
.)U
nion
mel
t 80
Flux
(con
t’d.)
A387
1 hr
.(b)
U52
197
(670
)81
(560
)21
68—
3933
——
—G
r.22
(92)
(53)
(45)
8 hr
.(b)
U52
187
(600
)69
(475
)26
66—
4333
——
—(8
9)(5
8)(4
5)1
hr.(b
)AS
B3S
101
(697
)88
(607
)20
3032
°F—
——
——
(41)
(0°C
)20 (27)
A387
1 hr
.U
515
106
(730
)91
(625
)21
28—
——
——
—G
r.11
(38)
8 hr
.U
515
92(6
35)
78(5
40)
2447
—26
——
——
(64)
(35)
1 hr
.AS
B2S
90(6
21)
75(5
18)
2222
32°F
——
——
—(3
0)(0
°C)
16 (22)
A387
1 hr
.(b)
AS B
1S83
(573
)70
(483
)24
3032
°F—
——
——
Gr.
2(4
1)(0
°C)
20 (27)
GEN-26110_06.p65 7/10/01, 4:02 PM38
6-39
Wel
d M
etal
Mec
hani
cal P
rope
rtie
s (c
ont’d
.)P
late
Str
ess
CV
N -
ft.-
lbs.
(J)
Type
Rel
ief
%1
in.
Tim
eU
TS
YS
Elo
n-(2
5.4
mm
)@
11
50
°FS
pool
arc
ksi
ksi
ga-
72
°F1
0°F
0°F
-20
°F-4
0°F
-60
°F-1
00
°FT
hick
(62
1°C
)W
ire
(MP
a)(M
Pa)
tion
(22
°C)
(-1
2°C
)(-
18
°C)
(-2
9°C
)(-
40
°C)
(-5
1°C
)(-7
3°C
)
Fuse
d-G
ener
al P
urpo
se (c
ont’d
.)U
nion
mel
t 124
A36
AW36
76(5
24)
65(4
48)
30—
——
70—
——
(95)
A204
AW40
B80
(552
)68
(469
)23
——
26—
——
—(3
5)1
hr40
B77
(531
)63
(434
)26
——
—38
——
—(5
2)1
hr40
86(5
93)
73(5
03)
26—
——
33—
——
(45)
A302
1 hr
4489
(614
)77
(531
)25
——
—27
——
—(3
7)40
hr
4482
(565
)69
(476
)25
—60
——
——
—(8
1)
GEN-26110_06.p65 7/10/01, 4:02 PM39
6-40
Wel
d M
etal
Mec
hani
cal P
rope
rtie
s (c
ont’d
.)P
late
Str
ess
CV
N -
ft.-
lbs.
(J)
Type
Rel
ief
%1
in.
Tim
eU
TS
YS
Elo
n-(2
5.4
mm
)@
11
50
°FS
pool
arc
ksi
ksi
ga-
72
°F1
0°F
0°F
-20
°F-4
0°F
-60
°F-1
00
°FT
hick
(62
1°C
)W
ire
(MP
a)(M
Pa)
tion
(22
°C)
(-1
2°C
)(-
18
°C)
(-2
9°C
)(-
40
°C)
(-5
1°C
)(-7
3°C
)
Hig
h Im
pact
Neu
tral
Flu
xes
(con
t’d.)
Uni
onm
elt 6
56 F
lux
A36
AW81
74(5
10)
63(4
35)
30—
——
——
59—
(80)
AW29
S79
(545
)67
(462
)30
——
——
—46
—(6
2)A5
16AW
5386
(593
)74
(510
)28
——
——
—52
-80°
F(7
1)(-6
2°C
)31 (42)
1 hr
5379
(545
)65
(448
)32
——
——
-50°
F—
—(-4
6°C
)80
(108
)AW
8693
(641
)78
(538
)26
——
——
—29
—(3
9)1
hr86
88(6
07)
69(4
76)
26—
——
——
28—
(38)
8 hr
8684
(579
)66
(455
)30
——
——
—35
—(4
7)
GEN-26110_06.p65 7/10/01, 4:02 PM40
6-41
Wel
d M
etal
Mec
hani
cal P
rope
rtie
s (c
ont’d
.)P
late
Str
ess
CV
N -
ft.-
lbs.
(J)
Type
Rel
ief
%1
in.
Tim
eU
TS
YS
Elo
n-(2
5.4
mm
)@
11
50
°FS
pool
arc
ksi
ksi
ga-
72
°F1
0°F
0°F
-20
°F-4
0°F
-60
°F-1
00
°FT
hick
(62
1°C
)W
ire
(MP
a)(M
Pa)
tion
(22
°C)
(-1
2°C
)(-
18
°C)
(-2
9°C
)(-
40
°C)
(-5
1°C
)(-7
3°C
)
Hig
h Im
pact
Neu
tral
Flu
xes
(con
t’d.)
Uni
onm
elt 6
56 F
lux
(con
t’d.)
A537
AWEN
i496
(660
)83
(570
)27
——
——
—-8
0°F
—(-6
2°C
)45 (61)
1 hr
.EN
i490
(620
)81
(560
)27
——
——
——
30 (41)
A 51
4AW
9510
5(7
24)
93(6
41)
——
——
——
31—
(42)
A588
AWW
S88
(607
)79
(545
)—
——
——
-50°
F—
—(-4
6°C
)58 (79)
GEN-26110_06.p65 7/10/01, 4:02 PM41
6-42
Wel
d M
etal
Mec
hani
cal P
rope
rtie
s (c
ont’d
.)P
late
Str
ess
CV
N -
ft.-
lbs.
(J)
Type
Rel
ief
%1
in.
Tim
eU
TS
YS
Elo
n-(2
5.4
mm
)@
11
50
°FS
pool
arc
ksi
ksi
ga-
72
°F1
0°F
0°F
-20
°F-4
0°F
-60
°F-1
00
°FT
hick
(62
1°C
)W
ire
(MP
a)(M
Pa)
tion
(22
°C)
(-1
2°C
)(-
18
°C)
(-2
9°C
)(-
40
°C)
(-5
1°C
)(-7
3°C
)
Hig
h Im
pact
Neu
tral
Flu
xes
(con
t’d.)
OK
10.
62 F
lux
A204
AW40
B85
(586
)74
(510
)25
——
——
—33
—(4
5)—
AW40
102
(703
)87
(600
)27
——
——
——
37 (50)
A514
AW95
112
(772
)10
2(7
03)
18—
——
——
49—
(66)
A516
AW81
73(5
03)
59(4
07)
33—
——
——
48—
(65)
AW53
84(5
79)
69(4
76)
28—
——
——
—65 (88)
GEN-26110_06.p65 7/10/01, 4:02 PM42
6-43
Wel
d M
etal
Mec
hani
cal P
rope
rtie
s (c
ont’d
.)P
late
Str
ess
CV
N -
ft.-
lbs.
(J)
Type
Rel
ief
%1
in.
Tim
eU
TS
YS
Elo
n-(2
5.4
mm
)@
11
50
°FS
pool
arc
ksi
ksi
ga-
72
°F1
0°F
0°F
-20
°F-4
0°F
-60
°F-1
00
°FT
hick
(62
1°C
)W
ire
(MP
a)(M
Pa)
tion
(22
°C)
(-1
2°C
)(-
18
°C)
(-2
9°C
)(-
40
°C)
(-5
1°C
)(-7
3°C
)
Hig
h Im
pact
Neu
tral
Flu
xes
(con
t’d.)
Uni
onm
elt 7
09-5
Flu
xA2
04AW
40B
83(5
70)
72(4
95)
25—
——
3521
——
(47)
(28)
8 hr
.40
B76
(525
)63
(435
)30
——
—59
——
—(8
0)A3
871
hr.(b
)U
521
95(6
55)
78(5
40)
2585
—73
61—
——
G.2
2(1
15)
(99)
(83)
8 hr
.(b)
U52
185
(585
)67
(460
)26
104
—98
81—
——
(141
)(1
33)
(110
)A3
871
hr.
U51
510
4(7
15)
89(6
15)
2324
—19
17—
——
G.1
1(3
3)(2
6)(2
3)8
hr.
U51
592
(635
)77
(530
)24
45—
3729
——
—(6
1)(5
0)(3
9)A5
37AW
ENi4
90(6
20)
74(5
10)
26—
——
3831
——
(51)
(42)
A302
2 hr
.44
98(6
75)
87(6
00)
25—
——
——
21—
(28)
GEN-26110_06.p65 7/10/01, 4:02 PM43
6-44
Wel
d M
etal
Mec
hani
cal P
rope
rtie
s (c
ont’d
.)P
late
Str
ess
CV
N -
ft.-
lbs.
(J)
Type
Rel
ief
%1
in.
Tim
eU
TS
YS
Elo
n-(2
5.4
mm
)@
11
50
°FS
pool
arc
ksi
ksi
ga-
72
°F1
0°F
0°F
-20
°F-4
0°F
-60
°F-1
00
°FT
hick
(62
1°C
)W
ire
(MP
a)(M
Pa)
tion
(22
°C)
(-1
2°C
)(-
18
°C)
(-2
9°C
)(-
40
°C)
(-5
1°C
)(-7
3°C
)
Hig
h Im
pact
Neu
tral
Flu
xes
(con
t’d.)
Uni
onm
elt 7
09-5
Flu
x (c
ont’d
.)H
Y-80
AW95
106
(730
)91
(625
)24
——
——
—37
—(5
0)8
hr.
9597
(670
)82
(565
)28
—60
——
——
—(8
1)T-
1AW
100
118
(815
)10
6(7
30)
20—
——
—35
——
(47)
A588
AWW
S86
(595
)72
(495
)25
——
—44
——
—(6
0)41
301
hr.
AS F
2S10
1(6
97)
89(6
14)
2467
——
35—
——
(91)
(47)
Q&T
(c)
AS F
2S11
8(8
14)
110
(759
)21
——
——
——
—
Not
es:
(a)
Stre
ss R
elie
ved
@11
00°F
(593
°C)
(b)
Stre
ss R
elie
ved
@12
75°F
(691
°C)
(c)
Wat
er Q
uenc
hed
@16
50°F
(899
°C);
Tem
pere
d 1
hr. @
1200
°F (6
49°C
)
GEN-26110_06.p65 7/10/01, 4:02 PM44
6-45
Subm
erge
d A
rc F
lux
& W
ire
Age
ncy
App
rova
ls*
Uni
onm
elt
Wire
sFl
uxes
AWS
CW
BAB
SM
ilitar
y
8080
F6A2
-EL1
2M
IL-2
3765
/4F6
A2-E
L12-
N35
0F7
A2-E
L12
Mil-
2376
514
F7A2
-EL1
223
1F7
AZ-E
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GEN-26110_06.p65 7/10/01, 4:02 PM45
6-46
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GEN-26110_06.p65 7/10/01, 4:02 PM46
6-47
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GEN-26110_06.p65 7/10/01, 4:02 PM47
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GEN-26110_06.p65 7/10/01, 4:02 PM48
6-49
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GEN-26110_06.p65 7/10/01, 4:02 PM50
7-1
HARDSURFACING PRODUCTSSection 7
DESCRIPTION PAGE
Wear-Arc Covered Electrodes .............................7-2Relative Resistance to Impact and Abrasion ........ 7-3Welding Currents for Wear-Arc Electrodes ........... 7-3Hardsurfacing Covered Electrodes ........................ 7-4
Wear-O-Matic Semiautomatic Cored Wires ....... 7-13Relative Resistance to Impact and Abrasion ...... 7-14Hardsurfacing Wires ............................................. 7-15
GEN-26110_07.p65 7/10/01, 4:02 PM1
7-2
WEAR-ARC™Covered Electrodes
IntroductionSurfacing is the application of wear-resistant alloys tometal parts subject to destructive wear caused byabrasion, impact, compression, heat, or corrosion. TheWear-Arc electrodes are designed for manual arc weldingfor surfacing parts. Two types of overlay alloys arerecommended to correct destructive wear patterns:
Buildup AlloysBecause hardsurfacing alloys are limited by maximumthickness of deposit, badly worn parts must be built upprior to depositing the wear-resistant material. Wear-Arc 3IP, Nickel Manganese, and WH are designed for buildupapplications.These alloys possess good deformation resistance andprovide a strong bond with the base metal. This helps toprevent roll-over or spalling and provides a sound basefor hardsurfacing.
Hardsurfacing AlloysHardsurfacing alloys are designed to provide maximumresistance to specific wear factors or combination of wearfactors. The performance of these alloys is in directrelation to the amount of carbide forming elementspresent in combination with carbon. The carbon reactswith the carbide forming elements—chromium, tungsten,molybdenum, etc.—creating hard carbides from which theoverlay material derives its wear resistance. Thesecarbides are evenly distributed in a matrix and as the ratioof carbides to matrix increases, abrasion resistanceincreases and toughness or ductility decreases.The chart on the following page shows the relative impactresistance or “ductility” and the abrasion or wear resis-tance of the Wear-Arc line.
GEN-26110_07.p65 7/10/01, 4:02 PM2
7-3
Rel
ativ
e R
esis
tanc
e to
Impa
ct a
nd A
bras
ion
Build
up A
lloys
Har
dsur
faci
ng A
lloys
Wea
r-Arc
3IP
Wea
r-Arc
4 IP
Wea
r-Arc
Nic
kel M
anga
nese
Wea
r-Arc
5 IP
Wea
r-Arc
WH
Wea
r-Arc
6 IP
Wea
r-Arc
12
IP
Wea
r-Arc
40
Impa
ct R
esis
tanc
e
A
bras
ion
Res
ista
nce
Wel
ding
Cur
rent
s fo
r W
ear-
Arc
Ele
ctro
des
3 IP
- 4
IP -
5 IP
- 6
IPEl
ectro
deN
icke
lD
iam
eter
Flat
Verti
cal
Ove
rhea
d12
IPM
anga
nese
WH
40
1/8"
(3.2
mm
)12
0-16
010
0-13
012
0-16
012
0-16
011
0-15
013
0-19
011
0-15
05/
32"
(4.0
mm
)15
0-20
012
0-15
014
0-19
015
0-20
014
0-19
017
0-25
014
0-19
03/
16"
(4.8
mm
)20
0-26
017
0-20
019
0-25
020
0-26
018
0-24
023
0-35
019
0-25
01/
4"(6
.4 m
m)
260-
320
——
——
——
260-
320
230-
310
——
—25
0-31
0
GEN-26110_07.p65 7/10/01, 4:02 PM3
7-4
Hardsurfacing Covered ElectrodesWear-Arc 3 IPNo AWS ClassificationAC/DCEP (Electrode Positive)Electrode Imprint Marking: 3 IPBuildup AlloyCarbon Steels, Low Alloy Steels, Abrasion-Resistant Steels
Description:Wear-Arc 3 IP weld metal provides excellent resistanceto wear caused by heavy impact and compressive loads,and is most suitable as a base alloy for hardsurfacingoverlays.Wear-Arc 3 IP should be used where maximum machin-ability of a surface deposit is desired and as the finaloverlay. The ductility and compressive strength of Wear-Arc 3 IP weld metal is adequate for the wear problem ofmany applications. Typical applications are: steel millwobblers and coupling boxes, bearing journals, steel millroll necks and ends, forging hammer dies, and all carbonsteel parts requiring buildup prior to hardsurfacing.
Procedure:Wear-Arc 3 IP has superior welding characteristics in all positions.Because of the iron powder in the coating, higher current settingsmay be used than with conventional electrodes.
Area Covered per Pound, 1/8" (3.2 mm) Depth—24-25 in.2 (155-161 cm2)
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 91,500 (631)Tensile Strength, psi (MPa) 101,750 (702)% Elongation in 2" (51 mm) 24% Reduction in Area 64Hardness 29 Rc**Two Layers weaving on 1020 SteelWeld deposits can be cut with oxy-acetylene torch or by air carbon-arc cutting.
Typical Undiluted Weld Metal Analysis (%)C Mn Si Cr Mo
0.20 Max. 0.09 0.70 2.30 1.10
Properties of Deposited Weld Metal:The chromium and molybdenum alloy balance impartsimpact and compression resistance, as well as consider-able wear resistance to the weld metal in all thicknessesof buildup.
Standard Diameters1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm), 1/4" (6.4 mm)
GEN-26110_07.p65 7/10/01, 4:02 PM4
7-5
Hardsurfacing Covered ElectrodesWear-Arc Nickel ManganeseAWS Class EFeMn-AAC/DCEP (Electrode Positive)Electrode Imprint Marking: Ni MnBuildup AlloyAttachment Welding, Manganese Steel, Severe Impact
Code and Specification Data:AWS A5.13
Description:Wear-Arc Nickel Manganese weld deposit is crack resistantand forms a ductile, high-strength fusion bondon manganese steel. Under conditions of continuous impact,the deposit surface work hardens to a BHN of 510.Wear-Arc Nickel Manganese is best suited for applica-tions where severe impact and compressive forces areencountered continuously. Because of the sound, high-strength welds from this electrode, it should also be usedfor the attachment welding of wear plates, teeth, rounds,and shapes of manganese steel.
Procedure:Wear-Arc Nickel Manganese electrodes require nospecial technique of application. When welding manga-nese steel, these general recommendations should befollowed:
1. Weld only on sound, clean, unhardened base metal.2. The use of preheat on manganese steel is not
recommended. Avoid overheating the base metal byusing the lowest current which produces good metaltransfer and arc characteristics. Keep austeniticmanganese steel below 600°F (316°C), interpasstemperature.
Typical Mechanical PropertiesAs Welded
Yield Strength, psi (MPa) 62,000 (427)Tensile Strength, psi (MPa) 116,000 (800)% Elongation in 2" (51 mm) 45Hardness 90 Rb*Work-Hardened Hardness 48 Rc**Two Layers on Manganese SteelWeld deposits can be cut with oxy-acetylene torch or by air carbon-arc cutting.
Typical Undiluted Weld Metal Analysis (%)C Mn Si Ni
0.60 14.00 0.55 4.00
Standard Diameters5/32" (4.0 mm), 3/16" (4.8 mm), 1/4" (6.4 mm)
GEN-26110_07.p65 7/10/01, 4:02 PM5
7-6
Hardsurfacing Covered ElectrodesWear-Arc WHNo AWS ClassificationAC/DCEP (Electrode Positive)Electrode Imprint Marking: WH
Buildup AlloyHigh Strength, Manganese & Carbon Steels, AttachmentWelding, Severe Impact
Description:The weld deposit of Wear-Arc WH is high in alloy content,extremely deformation resistant, and has 2-4 timesgreater wear resistance than work-hardened austeniticmanganese steel. WH contains approximately 34% alloy,properly balanced to perform the dual purpose of a work-hardening, wear-resistant buildup alloy, and also a highstrength welding alloy. The alloy is austenitic and pro-duces tough, crack-resistant welds.Wear-Arc WH produces a dependable bond to manga-nese steel. Users of type 308, 309, 310, or 312 stainlesssteel electrodes for rebuilding and repair of equipmentconstructed of manganese steel find Wear-Arc WH to bea superior electrode for the job.Deposits of Wear-Arc WH, when subjected to high impactand compressive loads, develop a surface hardness of 48-50 Rockwell C and still retain a tough, resilient,deformation-resistant mass under the work-hardenedsurface.
Procedure:Wear-Arc WH electrodes are designed for welding withAC DCEP (Electrode Positive) in all positions. Whenwelding high-carbon steel, preheat to 300-400°F (149-204°C). Do not preheat manganese steel.Hold the electrode at an angle of 15° in the direction oftravel with as short an arc as possible without allowingthe coating to touch the weld pool. Stringer beads arepreferable. Weaving should be limited to 2-1/2 times theelectrode diameter. Slag should be cleaned thoroughlybetween passes.For vertical welding, the electrode should be held perpen-dicular to the plate using a very slight oscillation from sideto side on the root bead. When welding in the overheadposition, hold a short arc with no oscillation of theelectrode.Hardsurfacing Covered Electrodes
GEN-26110_07.p65 7/10/01, 4:02 PM6
7-7
Wear-Arc WH (cont’d.)
Area Covered per Pound, 1/8" (3.2 mm) Depth—20-22 in.2 (129-142 cm2)
Typical Mechanical PropertiesWear-Arc 14%
WH ManganeseWeld Metal Steel PlateAs Welded Heat Treated
Yield Strength, psi (MPa) 77,000 (551) 50,000 (345)Tensile Strength, psi (MPa) 97,500 (672) 86,000 (593)
120,000 (827)% Elongation in 2" (51 mm) 36 35/45Hardness 23 Rc* 16 RcWork-Hardened Hardness 48.5 Rc* 48 Rc*Two Layers on 1020 SteelWeld deposits cannot be cut with oxy-acetylene torch or by aircarbon-arc cutting.
Typical Undiluted Weld Metal Analysis (%)C Mn Si Cr Ni
0.45 4.25 0.80 19.75 10.00
Standard Diameters1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm)
This chart illustrates a hardness probe of depositedWear-Arc WH weld metal after work-hardening bypeening. Notice that although the outer skin of thedeposit shows a hardness of 48 Rc, the metalunderneath retains the ductility necessary to resistimpact or compressive loads. This toughnessprevents spalling and overroll and provides anexcellent base for harsurfacing overlays.
GEN-26110_07.p65 7/10/01, 4:02 PM7
7-8
Hardsurfacing Covered ElectrodesWear-Arc 4 IPNo AWS ClassificationAC/DCElectrode Imprint Marking: 4 IPHardsurfacing AlloyMetal-to-Metal Wear, Impact & AbrasionCarbon Steels & Low Alloy SteelsDescription:Wear-Arc 4 IP is an all position, iron powder, low hydro-gen hardsurfacing electrode providing sound overlays oncarbon and low alloy steels, as well as many abrasion-resistant steels.Wear-Arc 4 IP electrodes are designed to provide hard,deformation-resistant, crack-free weld metal for resis-tance to metal-to-metal wear involving impact,compression, and abrasion. Typical applications are:Dragline bucket pins and linksDredge bucket lipsDredge driving tumblersDredge spud pointsCan brake drumsMill brake drumsShovel idlersCable sheavesCable sheave shaftsElevator bucket lips
Shovel rollersShovel latch pins and keepersTractor idlersTractor rollersWheels (Mine car, skip car, etc.)Ditcher drive segmentsDitcher rollersShovel boom heels
Procedure:The iron powder in the coating produces high depositionrates. A slight weaving technique may be used. Depositthickness should be limited to 3/8" (9.5 mm) maximum.
Area Covered per Pound, 1/8" (3.2 mm) Depth—24-25 in.2 (155-161 cm.2)
Typical Mechanical Properties:Wear-Arc 4 IP weld metal is characterized by its smoothappearance, high hardness, and high compressivestrength. The deposit is not machinable but may beforged or heat treated. Weld deposits can be cut with oxy-acetylene torch or by air carbon-arc cutting.
Hardness of Deposited Metal:Two layers, weave bead on 1020 steel—54-56 Rockwell C.
Typical Undiluted Weld Metal Analysis (%)C Mn Si Cr Mo
0.45 0.90 1.30 2.20 1.00
Standard Diameters1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm), 1/4" (6.4 mm)
GEN-26110_07.p65 7/10/01, 4:02 PM8
7-9
Hardsurfacing Covered ElectrodesWear-Arc 5 IPNo AWS ClassificationAC/DCEP (Electrode Positive)Electrode Imprint Marking: 5 IP
Hardsurfacing AlloyHigh impact and moderate abrasionCarbon steels and low alloy steels
Description:Wear-Arc 5 IP is an all-position, low hydrogenhardsurfacing composite electrode providing soundoverlays on carbon and low alloy steels, as well as manyabrasion-resistant steels.Wear-Arc 5 IP is recommended for the reclamation ofparts subject to wear caused by moderate to high impactand moderate abrasion. Typical applications are:Dipper ShovelsDipper LipsBulldozer TrunnionsDrag Line Bucket Lips
Classifier ScreensBucket PinsMud PumpsBuckets and Impellers
Procedure:Wear-Arc 5 IP electrodes are designed for welding withAC or DCEP. When welding out of position, DCEP ispreferred. A slight weaving technique may be used.
Typical Mechanical Properties:Deposits are non-machinable, but may be forged at redtemperatures. The deposit is heat treatable and magnetic.Weld deposits can be cut with oxy-acetylene torch or byair carbon-arc cutting.
Hardness of Deposited Metal:One layer on 1020 mild steel—50-55 Rockwell CTwo layers on 1020 mild steel—58-60 Rockwell C
Typical Chemical Analysis of Weld Deposit (%)C Mn Si Cr Mo
0.65 1.00 0.80 5.75 0.65
Standard Diameters1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm), 1/4" (6.4 mm)
GEN-26110_07.p65 7/10/01, 4:02 PM9
7-10
Hardsurfacing Covered ElectrodesWear-Arc 6 IPNo AWS ClassificationAC/DCElectrode Imprint Marking: 6 IP
Hardsurfacing AlloyHigh Abrasion & Light ImpactCarbon Steels and Manganese Steels
Description:The iron powder low hydrogen coating of Wear-Arc 6 IPelectrodes promotes good bonds with manganese andcarbon steels.Wear-Arc 6 IP is recommended for the reclamation ofparts subject to wear caused by abrasion and lightimpact. This electrode is ideal for field work where partscannot be positioned for downhand welding. Typicalapplications are:Shovel buckets and teeth ScreensDragline buckets and teeth Asphalt mixer paddlesPug mill paddles Crushing equipmentTamping tools GranulatorsTruck bodies Trunnions
Procedure:Wear-Arc 6 IP provides high deposition rates in allpositions using AC or DC, either polarity. A weavingtechnique is recommended. Deposit thickness should belimited to two passes or 1/4" (6.4 mm) maximum.
Area Covered per Pound, 1/8" (3.2 mm) Depth—22-24 in.2 (142-155 cm.2)
Typical Mechanical Properties:Deposits are not machinable and are smooth, requiring aminimum amount of grinding to bring them to shape.Deposits are not affected by heat treatment and can beforged at red heat. Weld deposits cannot be cut with oxy-acetylene torch or by air carbon-arc cutting.
Hardness of Deposited Metal:Two layers, weave bead on 1020 mild steel—
56-59 Rockwell C
Typical Undiluted Weld Metal Analysis (%)C Mn Si Cr
3.00 0.80 1.80 6.50
Standard Diameters1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm), 1/4" (6.4 mm)
GEN-26110_07.p65 7/10/01, 4:02 PM10
7-11
Hardsurfacing Covered ElectrodesWear-Arc 12 IPNo AWS ClassificationAC/DCElectrode Imprint Marking: 12 IP
Hardsurfacing AlloyHigh Impact & Good Abrasion ResistanceCarbon Steels and Manganese Steels
Description:The high alloy content of Wear-Arc 12 IP provides goodresistance to erosion and corrosion.Wear-Arc 12 IP is recommended to prolong the servicelife of new and worn parts subject to wear caused byabrasion and impact. Typical applications are:Dipper teeth and lipsDragline bucket lipsConveyor bucket lipsRoll crushers
Procedure:The iron powder, low hydrogen coating of Wear-Arc 12 IPelectrodes provides excellent arc characteristics and highdeposition rates in all positions using AC or DC, eitherpolarity. Weaving technique or stringer beads may beused. Deposit thickness should be limited to two passesor 1/4" (6.4 mm).
Area Covered per Pound, 1/8" (3.2 mm) Depth—22-24 in.2 (142-155 cm.2)
Typical Mechanical Properties:Check cracks may appear as the deposit stress relievesitself. These cracks do not impair the wear resistance ofthe deposit, but do prevent warpage or distortion of thebase metal. Deposits are non-machinable and do notrespond to heat treatment. Weld deposits cannot be cutwith oxy-acetylene torch or by air carbon-arc cutting.
Hardness of Deposited Metal:Two layers, weave bead on 1020 mild steel—
54-56 Rockwell C
Typical Undiluted Weld Metal Analysis (%)C Mn Si Cr Mo
3.50 2.70 1.80 13.00 1.10
Standard Diameters and Packages1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm), 1/4" (6.4 mm)
Gyratory crusher partsMuller tiresImpactorsHammer mill parts
GEN-26110_07.p65 7/10/01, 4:02 PM11
7-12
Hardsurfacing Covered ElectrodesWear-Arc 40No AWS ClassificationAC/DCEP (Electrode Positive)Electrode Imprint Marking: 40
Hardsurfacing AlloyExtreme Abrasion & Medium Impact
Description:Wear-Arc 40 has a special core wire and the proper amountof alloys in the coating to produce a deposit of highlyabrasive resistant chrome carbides in a matrix of iron andchromium. The use of a special core wire gives much betterarc action and also allows the electrode to operate at highercurrent settings. Deposits resist galling and seizing, and takea high polish when subject to sliding abrasive action.Wear-Arc 40 is designed for use on steel mill twist guides,steel mill entry guides, wire guides, conveyor chain, andagricultural tools. This electrode also gives excellent serviceon certain crushing and quarrying equipment where highabrasive wear is the primary wear factor.This alloy has excellent hardness at constant temperaturesup to about 1000°F (538°C). In considering this alloy for aheat and abrasion application, a constant operating tempera-ture must be estimated. For example, a steel mill guide blocksurface with Wear-Arc 40 withstands exposure to intermittentcontact with hot billets of bars at temperatures of 1800-2000°F (982-1093°C). This is possible because sufficienttime elapses between contacts to prevent a high temperaturebuild-up.
Procedure:Wear-Arc 40 electrodes have good welding characteristics inflat and vertical-up positions. Weaving technique or stringerbeads may be used. Limit deposit thickness to two passes.
Area Covered per Pound, 1/8" (3.2 mm) Depth—20-24 in.2 (129-155 cm.2)
Typical Mechanical Properties:The weld metal deposit of Wear-Arc 40 cannot be forged atany temperature and does not respond to heat treatment.Weld deposits cannot be cut with oxy-acetylene torch or byair carbon-arc cutting.
Hardness of Deposited Metal:Two layers on mild steel—57 Rockwell C
Typical Undiluted Weld Metal Analysis (%)C Mn Si Cr
4.50 0.30 1.80 30.00
Standard Diameters1/8" (3.2 mm), 5/32" (4.0 mm), 3/16" (4.8 mm), 1/4" (6.4 mm)
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WEAR-O-MATIC ®
Semiautomatic Cored Wires
Wear-O-Matic cored wires for semiautomatic applicationare fabricated tubular wire internally stabilized for goodarc characteristics without the use of shielding gas orsubmerged arc granular flux. Each of the grades availablehas a carefully balanced alloy content to produce specificproperties in the deposited weld metal, which provide therequired wear resistance for which each grade is in-tended.Manufacturing processes and quality control measuresassure uniform alloy distribution throughout the tubularwire to maintain constant wear-resistant propertiesthroughout the deposit. Wear-O-Matic wires are manufac-tured in the 7/64” (2.8 mm) diameter for smooth, evenfeeding and constant current pick-up at the contact tip.The following pages list the Wear-O-Matic wires for openarc application with descriptive information to aid in theselection of alloys for economical hardsurfacing.
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7-14
Wea
r-O
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ic S
emia
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atic
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ed W
ire
Rel
ativ
e R
esis
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ct a
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ion
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dsur
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ster
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air
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ct R
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GEN-26110_07.p65 7/10/01, 4:02 PM14
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Hardsurfacing WiresWear-O-Matic 3No AWS ClassificationDCEP or DCEN (Electrode Positive or Negative)
Open Arc—Buildup AlloyHigh Impact ResistanceCarbon Steels; Low Alloy Steels
Description:Wear-O-Matic 3 wire is a buildup alloy for multiple layerapplication on all weldable carbon and low alloy steels.Recommended for the rebuilding of carbon and low alloysteel parts prior to hardsurfacing or for use where amachinable resurfacing alloy is required.
Procedure:The recommended amperage range is 225-350 amperesat 30-40 arc volts. A weaving technique is recommendedwhen a machinable deposit or multiple layer buildup isdesired. Stringer beads may be used; however, thisproduces a harder deposit and should be limited to threepasses.Preheat is not required for crack and porosity free weldmetal. A 200°F (98°C) preheat is recommended toprevent excessive deposit hardness when a small depositis to be applied to a heavy section and the deposit is tobe machined. The requirement for preheat usuallydepends on the properties of the base metal. The higheralloy steels generally require some preheat.
Hardness of Deposited Metal:Two layer deposit on 1045 steel—weaving technique—
30 Rockwell CStringer bead—36 Rockwell CAbrasion Resistance: ModerateImpact Resistance: HighCompressive Strength: HighMachinability: ExcellentRelief Checking: None
Typical Undiluted Weld Metal Analysis (%)C Mn Si Cr Mo
0.07 2.00 2.00 0.50 0.50
Standard Diameter7/64" (2. 8 mm)
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Hardsurfacing WiresWear-O-Matic Nickel ManganeseNo AWS ClassificationDCEP (Electrode Positive)
Open Arc—Buildup AlloyAttachment WeldingManganese Steel
Description:Wear-O-Matic Nickel Manganese wire for open arc,semiautomatic application provides the necessary hightensile and yield strength to permit this alloy to be usedfor both attachment welding and buildup applications onaustenitic manganese steel. The weld metal has excellentductility and provides an ideal base for subsequenthardsurfacing overlays.Wear-O-Matic Nickel Manganese wires are recommendedfor the rebuilding and high strength welding of austeniticmanganese steel parts and equipment.
Procedure:Wear-O-Matic Nickel Manganese wire should be depos-ited using DCEP (Electrode Positive). The recommendedamperage range is 175-275 amperes at 30-35 arc volts.Austenitic manganese steel should not be overheatedbecause loss of ductility may result. Use a skip-weldingtechnique to keep the manganese base metal below600°F (300°C).
Typical Mechanical Properties:Wear-O-Matic Nickel Manganese deposits have excellentresistance to impact with moderate abrasion resistance.The weld deposit improves with work-hardening, and isnot machinable. It can be cut with an oxy-acetylene flameand by air carbon-arc cutting.
Hardness of Deposited Metal:Two layer deposit on austenitic manganese steel:As Welded—90 Rockwell CWork-Hardened—48 Rockwell CMachinability: Non-machinable. Finish by grinding.Relief Checking: NoneDeposit Thickness: Multiple layers may be applied.
Typical Undiluted Weld Metal Analysis (%)C Mn Si Ni
0.60 13.50 0.60 3.90
Standard Diameter7/64" (2.8 mm)
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Hardsurfacing WiresWear-O-Matic BRNo AWS ClassificationComposite Metal Cored WireDCEP (Electrode Positive)
Gas Shielded-Buildup AlloyBolster Repair
Description:The bolster wire is a gas shielded fabricated wiredesigned for the repair and reclamation of railroad freightcar bolster bowls. This wire was designed to be used withthe Gas Metal Arc Welding process with a 98% argon/2%oxygen shielding gas mixture. With the metal coredprocess and the argon/oxygen shielding, a 98% deposi-tion efficiency is possible. It offers excellent abrasionresistance, but does not unduly impair machinability.Wear-O-Matic BR is recommended for the 40 through 100ton bolsters of either grade “B” or “C” type castings.Another application is the rebuilding of railroad couplers.The excellent combination between hardness and ductilityprovides use where an unlimited layer buildup wire isneeded. Depending on the carbon content and materialthickness, preheat may be necessary to prevent cracking.The following amperes and volts for the three (3) sizewires can be used as a guide:
3/32" (2.4 mm) Wear-O-Matic BR 325/375 AmpereDCEP 29/31 Volts
5/64" (2.0 mm) Wear-O-Matic BR 275/300 AmpereDCEP 28/29 Volts
1/16" (1.6 mm) Wear-O-Matic BR 225/250 AmpereDCEP 23/25 Volts
Hardness TypicalRange, Hardness
Deposit Condition (Undiluted) Rc(1) Rc3 layers on C1020, as welded 35 to 40 373 layers on C1020, stress relieved (2) 25 to 30 27Undiluted, as welded 35 to 40 38Undiluted, stress relieved (2) 28 to 30 28
(1) Welded using 98% Argon/2% Oxygen Shielding Gas(2) Stress relieved for one (1) hour at 1150°F ± 25°F (621°C ± 14°C)
Typical Undiluted Weld Metal Analysis (%)C Mn Si Cr Mo
0.12 1.60 0.37 2.50 0.55
Standard Diameters1/16" (1.6 mm), 5/64" (2.0 mm), 3/32” (2.4 mm)
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Hardsurfacing WiresWear-O-Matic WHNo AWS ClassificationDCEP (Electrode Positive)
Open Arc—Buildup AlloyWear Resistant—Attachment WeldingManganese and Low Alloy Steels
Description:Wear-O-Matic WH alloy is a dual purpose wire whichallows the use of the economic semiautomatic, open arcprocess for welding manganese to carbon steel and forbuildup applications involving severe impact or compres-sive loads. The high alloy content of this fabricated wire iscarefully balanced to perform this dual function, retainingthe high strength properties of a good attachment weldingmaterial while also serving as an excellent work-harden-ing, wear-resistant buildup material. The weld metal isaustenitic at room temperature.Wear-O-Matic WH alloy is typically used for the followingapplications because of the high tensile and yieldstrength:
Procedure:Wear-O-Matic WH is manufactured in 7/64" (2.8 mm)diameter, designed for semiautomatic, open arcapplication.Operation: Open Arc only—DCEP (Electrode Positive)Amperage: 225 to 300 amps, at 30-35 volts
Attachment Welding:Wear-O-Matic WH is suitable for production fabrication ofmanganese steel and alloy steel parts which formerlyrequired the use of a wire such as 308 stainless. Wear-O-Matic WH gives the user the added advantage ofsemiautomatic welding. The outstanding physical proper-ties of Wear-O-Matic WH weld metal are valuable in thefield maintenance attachment welding of dipper teeth,tractor grousers, blade replacements, rounds and flatsused as wear plates.
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Wear-O-Matic WH
Typical Mechanical Properties:Wear-O-Matc WH weld metal is tough and resilient, andprovides strong, crack-resistant welds. The surface of thedeposit is work-hardenable, especially by impact. How-ever, the mass of material under this work-hardenedsurface remains strong and tough, resisting upset,overroll, and spalling. For this reason, Wear-O-Matic WHis an excellent underlay for hardsurfacing alloys on partssubject to heavy impact and compressive loads.
As Welded
Yield Strength, psi (MPa) 70,100 (483)Tensile Strength, psi (MPa) 102,900 (709)% Elongation in 2" (51 mm) 36Fracture Test SoundFissures None
Hardness of Deposited Metal:Two layer deposit on 1045 steel:As Welded—18 Rockwell CWork-Hardened—41 Rockwell C
Typical Undiluted Weld Metal Analysis (%)C Mn Si Cr Ni
0.38 4.23 0.47 20.20 9.65
Standard Diameter7/64" (2.8 mm)
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Hardsurfacing WiresWear-O-Matic Super WHNo AWS ClassificationDCEP (Electrode Positive)
Open Arc-Hardsurfacing AlloySevere Impact Resistance with some Abrasion
Description:Wear-O-Matic Super WH deposits a tough, work-hardenable alloy weld metal.Wear-O-Matc Super WH is intended for the buildup oroverlay of objects subjected to severe impact or impactwith some abrasion. It may be used for multiple layersurfacing without cracking or spalling.
Procedure:Wear-O-Matic Super WH - 7/64" (2.8 mm) size shouldbe welded by the open arc process only, using DCEP. Anelectrode extension “stick-out” of about two inches fromthe contact tip to the work should be used with 300-450amperes. Either weaving or stringer bead technique maybe used satisfactorily.
Typical Mechanical Properties:The tough alloy combination of the weld metal depositedby Wear-O-Matic Super WH gives its outstanding resis-tance to impact in service. The impacted surface of theweld metal work-hardens to the extent that it resists wearfrom combined impact and abrasive service.
Hardness of Deposited Metal:Two layer deposit on 1045 steel:As Welded—30 Rockwell CWork-Hardened—46 Rockwell CSix layer deposit on 1045 steel:As Welded—30 Rockwell CWork-Hardened—47-49 Rockwell C
Typical Undiluted Weld Metal Analysis (%)C Mn Si Cr Ni
1.10 15.00 0.65 17.00 1.40
Standard Diameter7/64" (2.8 mm)
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Wear-O-Matic 6No AWS ClassificationDCEP or DCEN (Electrode Positive or Negative)
Open Arc-Hardsurfacing AlloySevere Impact with AbrasionCarbon Steel, Low Alloy Steel, Manganese Steel
Description:Wear-O-Matic 6 is recommended for applications involv-ing impact and abrasion on such parts as conveyorbuckets, dragline and power shovel bucket lips and sides,scraper blades, and dredge bucket parts.
Procedure:The recommended amperage range is 250-400 amperesat 30-40 arc volts. Weaving beads are recommended todevelop maximum wear resistance in this alloy.Preheat is not required for sound weld metal on two-layerdeposits. Where deposits over 1/4" (6.4 mm) in thicknessare desired, a preheat and interpass temperature of atleast 400°F (204°C) is recommended in order to achievemaximum impact and compressive wear resistance.
Typical Mechanical Properties:Wear-O-Matic 6 is a chromium molybdenum alloycombining exceptionally good compressive strength withhigh hardness. Deposits may be heat treated and areforgeable. Weld deposits can be cut with oxy-acetylenetorch or by air carbon-arc cutting.
Hardness of Deposited Metal:Two layer deposit on 1045 steel—weaving technique—
48 Rockwell CAbrasion Resistance: ModerateImpact Resistance: Very HighCompressive Strength: HighMachinability: Machinable with carbide toolsRelief Checking: None
Typical Undiluted Weld Metal Analysis (%)C Mn Si Cr Mo
0.65 2.60 0.20 3.00 0.50
Standard Diameter7/64" (2.8 mm)
GEN-26110_07.p65 7/10/01, 4:02 PM21
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Hardsurfacing WiresWiresWear-O-Matic 12No AWS ClassificationDCEP (Electrode Positive)
Open Arc-Hardsurfacing AlloyHeavy Impact and Severe Abrasion
Description:Wear-O-Matic 12 combines good compressive strengthand hardness to provide excellent resistance to wearcaused by heavy impact and abrasion.Wear-O-Matic 12 is also recommended for power shoveland dragline bucket parts, dredge buckets, andhammermill parts.
Procedure:The recommended amperage range is 175-300 amperesat 30-35 arc volts. A weaving technique is recommendedto develop maximum abrasion and impact resistance.Application thickness should be limited to two passes or1/4" (6.4 mm).
Typical Mechanical Properties:The deposit of Wear-O-Matic 12 is not machinable andcannot be forged. Relief checks may occur with this alloybut do not impair its performance. Weld deposits cannotbe cut with oxy-acetylene torch or by air carbon-arccutting.
Hardness of Deposited Metal:Two layer deposit on 1045 steel—weaving technique—
50 Rockwell CAbrasion Resistance: HighImpact Resistance: ExcellentCompressive Strength: Excellent
Typical Undiluted Weld Metal Analysis (%)C Mn Si Cr Mo
2.30 0.30 1.00 17.00 0.80
Standard Diameter7/64" (2.8 mm)
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Hardsurfacing WiresWear-O-Matic 15No AWS ClassificationDCEP or DCEN (Electrode Positive or Negative)
Open Arc-Hardsurfacing AlloySevere Abrasion Resistance
Description:Wear-O-Matic 15 - 7/64" (2.8 mm) diameter open arc wireis a hardsurfacing alloy with outstanding resistance towear caused by severe abrasion.Wear-O-Matic 15 produces extremely high abrasion-resistant qualities that make it an outstanding surfacematerial for pug mill knives and augers, dry cement pumpscrews, conveyor screws, and asphalt mixer paddles andshanks.
Procedure:Recommended amperage range, 175-300 amperes at 30-35 arc volts. A weaving bead of 1-1/2" (38 mm) in width isrecommended in order to develop maximum abrasion-resistant qualities in the deposit. Deposit thickness shouldbe limited to two passes or 1/4" (6.4 mm).
Typical Mechanical Properties:The deposit of Wear-O-Matic 15 open-arc wire attainsmaximum hardness as deposited and is unaffected byheat treatment. In most cases, stress relief check cracksappear in the deposit but do not impair the abrasionresistance or the ability of the deposit to take a highpolish. Weld deposits cannot be cut with oxy-acetylenetorch or by air carbon-arc cutting.
Hardness of Deposited Metal:Two layer deposit on 1045 steel—weaving technique—
60 Rockwell CAbrasion Resistance: OutstandingImpact Resistance: LightCompressive Strength: HighMachinability: Non-machinable. Finish by grinding.
Typical Undiluted Weld Metal Analysis (%)C Mn Si Cr Mo
4.00 0.30 0.60 5.50 5.00
Standard Diameter7/64" (2.8 mm)
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Hardsurfacing WiresWear-O-Matic 40No AWS ClassificationDCEP (Electrode Positive)Open Arc-Hardsurfacing AlloySevere Abrasion and Compression
Description:Wear-O-Matic 40 is a hardsurfacing alloy with highchromium and carbon content. It is designed to provideoutstanding resistance to wear caused by abrasion incombination with compression at temperatures up to1000°F (538°C). Deposits take a high polish and do notgall or seize when subjected to metal-to-metal wear.The unique wear-resistant properties of Wear-O-Matic 40allow a wide variety of applications:Crusher partsHammermill parts
Steel mill partsMill guides
Procedure:The recommended amperage range is 175-300 amperesat 30-35 arc volts. A weaving bead of 1-1/2" (38 mm) inwidth is recommended. Deposit thickness should belimited to two passes or 1/4" (6.4 mm).
Typical Mechanical Properties:Wear-O-Matic 40 wire is a high alloy material combiningelements to provide extremely high abrasion resistanceand good compressive strength. The deposit is not heattreatable and cannot be forged. Weld deposits cannot becut with oxy-acetylene torch or by air carbon-arc cutting.Hardness of Deposited Metal:Two layer deposit on 1045 steel—weaving technique—
58 Rockwell CAbrasion Resistance: ExcellentHeat Resistance: Excellent up to 1000°F (538°C)Impact Resistance: LightCompressive Strength: GoodMachinability: Non-machinable. Finish by grinding.Relief Checking: A uniform pattern of check cracks
appears in the deposit as it cools, indicating theexcellent stress-relief characteristics of this alloy. Thischeck crack pattern is necessary to prevent distortion inlarge parts when an alloy of this hardness and alloycontent is applied.
Typical Undiluted Weld Metal Analysis (%)C Mn Si Cr Mo
4.00 1.50 1.50 27.00 1.00
Standard Diameter7/64" (2.8 mm)
GEN-26110_07.p65 7/10/01, 4:02 PM24
8-1
CALCULATIONSSection 8
DESCRIPTION PAGE
Calculating Filler Metal Consumption .................8-2
Stub Loss Correction Table .................................8-3
Electrode or Wire Consumption -Typical Joints .......................................................8-4
Weld Metal Cost Worksheet and Instructions .....8-7
Weight Per Foot of Weld Metal (lb/ft) .................8-10
Weight Per Meter of Weld Metal (Kg/m) ............. 8-12
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8-2
Calculating Filler MetalConsumption
The number of pounds of welding electrodes orwelding wire necessary to complete a given weld jointmay be calculated by the formula:
P = WLE
Where:P = Pounds of electrode or wire required
W = Weight per foot of weld metalL = Length of weld (feet)E = Deposition efficiency
Weight Per Foot of Weld MetalCalculating the weight of weld metal requires that weconsider the following items.
1. Area of the cross-section of the weld.2. Length of the weld.3. Volume of the weld in cubic inches.4. Weight of the weld metal per cubic inch.
In the fillet weld shown below, the area of the cross-section (the triangle) is equal to one half the base timesthe height, the volume of the weld is equal to the areatimes the length, and the weight of the weld then, is thevolume times the weight of the material (steel) per cubicinch.
This example is for a fillet weld with no reinforcement.Similar calculations can be made for butt or lap joints.
Deposition EfficiencyThe deposition efficiency of an electrode or welding wireindicates the portion of that product you can expect to bedeposited as weld metal. Losses due to slag, spatter,fume and in the case of semi automatic or automaticwelding processes, the ends cut before each weld andthe wire left in the feed cable make no process 100%efficient.
12"0.5"
0.5"
(A) HEIGHT
(B) BASE
Volume of Weld = .5B x A x 12Weight of Steel = .283 lb per cu. in.Weight of Weld = (0.5 x 0.5) x 0.5 x 12 x .283
= .424 lb.
CALCULATING THE WEIGHT PER FOOT OF A FILLET WELD
GEN-26110_08.p65 7/10/01, 4:02 PM2
8-3
For estimates of electrode or wire consumption, thefollowing average values of deposition efficiency may beused.
DepositionProcess Efficiency
Submerged Arc 99%Gas Metal Arc (98%A, 2%O2) 98%Gas Metal Arc (75%A, 25%CO2) 96%Gas Metal Arc (C02) 93%Metal Cored Wires 93%Gas Shielded Flux Cored Wires 86%Self Shielded Flux Cored Wires 78%
* Shielded Metal Arc (Stick 12" long) 59%* Shielded Metal Arc (Stick 14" long) 62%* Shielded Metal Arc (Stick 18" long) 66%
* Includes 2" stub loss.
It must be remembered that when deposition tests areperformed in the laboratory, the deposition efficiency iscalculated by the formula:
Weight of metal depositedDeposition Efficiency =
Weight of electrode consumed
This does not take stub loss into consideration. The chartbelow shows how the laboratory established efficiency iseffected by the length of the stub.
Stub Loss Correction Tablefor Coated Electrodes
2" 3" 4" 5"
Electrode Deposition (50 mm) (75 mm) (100 mm) (125 mm)Length Efficiency STUB STUB STUB STUB
60.0% 50.0% 45.0% 40.0% 35.0%12" 65.0% 54.2% 46.7% 43.3% 37.9%
(300 mm) 70.0% 58.3% 52.5% 46.6% 40.8%Electrode 75.0% 62.5% 56.2% 50.0% 43.7%
80.0% 66.6% 60.0% 53.3% 46.6%
60.0% 51.4% 47.1% 42.9% 38.3%14" 65.0% 55.7% 51.1% 46.4% 41.0%
(350 mm) 70.0% 60.0% 55.0% 50.0% 45.0%Electrode 75.0% 64.3% 56.9% 53.6% 46.2%
80.0% 68.5% 62.8% 57.1% 51.4%
60.0% 53.3% 50.0% 46.6% 43.3%18" 65.0% 57.7% 54.2% 50.5% 46.9%
(450 mm) 70.0% 62.2% 56.3% 54.4% 50.5%Electrode 75.0% 66.6% 62.5% 56.3% 54.2%
80.0% 71.1% 66.6% 62.2% 57.7%
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8-4
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GEN-26110_08.p65 7/10/01, 4:02 PM4
8-5
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(kg
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GEN-26110_08.p65 7/10/01, 4:02 PM5
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(9.5
)1/
8(3
.2)
1/2
(12.
7).3
52(.
524)
.568
(.84
5)
1/2
(12.
7)1/
8(3
.2)
5/8
(15.
8).5
23(.
778)
.844
(1.2
6)
5/8
(15.
8)1/
8(3
.2)
13/1
6(2
0.6)
.87
(1.2
9)1.
403
(2.0
9)
3/4
(19.
1)1/
8(3
.2)
15/1
6(2
3.8)
1.21
7(1
.81)
1.96
3(2
.92)
1(2
5.4)
1/8
(3.2
)1
(31.
7)2.
104
(3.1
3)3.
394
(5.0
5)
GEN-26110_08.p65 7/10/01, 4:02 PM6
8-7
ES
AB
WE
LD M
ETA
LC
OS
T W
OR
KS
HE
ET
Pre
par
ed F
or:
Cu
sto
mer
Nam
eD
ate:
(1)
Pro
pose
d M
etho
d C
ost C
alcu
latio
n(2
) P
rese
nt M
etho
d C
ost
Cal
cula
tion
Res
ult
For
mul
as f
or C
alcu
latin
gD
ual
Sh
ield
710
0 U
ltra
(E
71T
-1)
E70
18 3
/16"
(4.
8 m
m)
(Cos
t Red
uctio
n)
Cos
t per
Pou
nd D
epos
ited
Wel
d M
etal
1/16
" (
1.6
mm
) @
300
Am
ps
@25
0 A
mp
sC
ost I
ncre
ase
(3)
(4)
(5)
(4)
(6)
(5-6
)
Labo
r &
=La
bor
& O
verh
ead
Cos
t/Hr
=$4
5.00
=
$45.
00=
$9.8
0$4
5.00
=
$45.
00=
$27.
78($
17.9
8)O
verh
ead
Dep
ositi
onR
ate
XO
pera
ting
Fac
tor
10.2
X0.
45=
4.59
5.4
X0.
3=
1.62
(3)
(4)
(9)
(5)
(4)
(6)
(5-6
)
Ele
ctro
deE
lect
rode
Cos
t/lb
=1.
78=
2.05
0.85
=1.
330.
72D
epos
ition
Effi
cien
cy0.
870.
642"
(5
0mm
) st
ub
(3)
(4)
(5)
(4)
(6)
(5-6
)
Gas
Gas
Flo
w R
ate
(Cu
ft/hr
)X
G
as C
ost/C
u ft.
=40
X0.
02=
0.8
=0.
080
X0
=0
=0
0.08
Dep
ositi
on R
ate
(lbs/
hr)
10.2
5.4
(7)
(8)
(7-8
)
Sum
of t
he A
bove
Tot
al V
aria
ble
Cos
t/lb
Dep
osite
d W
eld
Met
al=
$11.
93T
otal
Var
iabl
e C
ost/l
bD
epos
ited
Wel
d M
etal
=$2
9.11
($17
.18)
Tot
al
Pou
nds
of W
eld
Met
al a
nd W
elde
r M
an H
ours
Req
uire
d to
Am
ortiz
e E
quip
men
t Cos
tE
quip
men
t Cos
tP
ower
Sup
ply
Equ
ipm
ent C
ost i
n D
olla
rsP
ound
s of
We
ld M
etal
÷D
epo
sitio
n F
act
or=
Wel
der
Ma
n H
ours
Wire
Fee
der
Sav
ings
/lbR
equi
red
toR
equ
ired
toG
un &
Acc
esso
ries
Am
ortiz
e C
ost
Am
ortiz
e C
ost
$2,9
00(9
)
Tot
al
$2,9
00$1
7.18
=16
8.8
÷4.
59=
37 H
ours
GEN-26110_08.p65 7/10/01, 4:02 PM7
8-8
Weld Metal Cost WorksheetInstructionsTo help you quantify your specific cost of weld metaldeposited, ESAB has developed the weld metal costworksheet. These instructions will assist you in calculat-ing your specific cost to deposit weld metal whilecomparing it to alternative methods or product. Acompleted sample worksheet is located on page 8-7 anda blank worksheet (you can make copies and use it forfuture calculations) is located on page 8-14.
1. Indicate the complete descriptions of the proposed andpresent products at (1) and (2).
2. Secure the following information for the formulas (3), andwrite the data in the proper blanks in the proposed methodand present method columns (4).A. Labor and Overhead
Actual labor and overhead rate of your customer. If thisfigure is unknown, select a reasonable rate for your area.This figure will be the same in the proposed and presentmethod columns.
B. Deposition Rate in Pounds Per HourThe deposition rate is the actual weight of weld metalwhich can be deposited in one hour at a given weldingcurrent at 100% operating factor. In other words, it is theamount of weld metal which could be deposited in onehour if the welder could weld for a full hour withoutstopping.
C. Operating FactorOperating factor is the percentage of a welder’s workingday that is actually spent welding. It is the arc timedivided by the total hours worked multiplied by 100 andexpressed as a percentage. A 30% (.30) operating factormeans that only 30% of the welder’s day is actually spentwelding. If the customer’s operating factor is not known,assume a 30% operating factor for SMAW, and a 45%operating factor for semi-automatic GMAW and FCAW.For automatic GMAW and FCAW, an operating factor of60% to 80% may be assumed.
D. Electrode Cost Per PoundSelect the quantity price bracket in which the customernow purchases his filler metal. If unknown, select theprice bracket you think applicable and use for both thepresent and proposed calculations.
E. Deposition EfficiencyThe deposition efficiency is the relationship of theelectrode used to the amount of the weld metal depositedexpressed in percent, or:
DE = Weight of Weld Metal
Weight of Electrode Used.For instance, if it takes 4 lbs. of electrode to deposit3 lbs. (1.4 kg) of weld metal, E = 3/4 = .75 or 75%.
F. Gas Flow Rate (Cubic Feet/Hour)For GMAW with solid wires use a shielding gas flow rateof 25 to 30 cubic feet per hour. For small diameter fluxcored electrodes (1/16” or 1.6 mm diameter and under)
GEN-26110_08.p65 7/10/01, 4:02 PM8
8-9
use 35 cubic feet per hour. For large diameter flux coredelectrodes (5/64 and over) use 40-45 cubic feet per hour.
G. Gas Cost Per Cubic FootGas cost per cubic foot will vary depending on the type ofshielding gas being used and your location.
3. Complete the calculations in the “Proposed Method” and“Present Method” columns and record the calculated costs inthe blanks on the far right, (5) & (6) of each column.
4. Add the calculated cost and record the sums at the bottom, (7)& (8) of each column.
5. Subtract “Present Method” cost (6) from “Proposed Method”cost (5) for each of the sections titled “Labor & Overhead”,“Electrode”, and “Gas”. Enter the differences in the blanksindicated at right (5 minus 6). Negative numbers should beenclosed in parenthesis “( )”.
6. In the “Total Variable Cost/lb” section, subtract “PresentMethod” cost (8) from “Proposed Method” cost (7). Enter thedifference in the blank indicated as “Total”. Negativenumbers should be enclosed in parenthesis “( )”.
A (negative) number in “Total” represents the cost reduction you will realize as a
dollar saving per pound of weld metal deposited.7. The bottom section of the form will be useful if you must buy
new equipment to use the proposed product. That part of theform is self-explanatory with the exception of the “DEPOSI-TION FACTOR”. The deposition factor is simply thedeposition rate multiplied by the operating factor and isalready a part of the calculation as shown at (9) in the laborand overhead formula for the proposed method.
GEN-26110_08.p65 7/10/01, 4:02 PM9
8-10
Wei
ght
Per
Foot
of
Wel
d M
etal
for
Fille
t W
elds
and
Elem
ents
of
Com
mon
But
t Jo
ints
(lb/
ft)
Stee
lIn
stru
ctio
ns1.
Mak
e a
draw
ing
of th
e cr
oss-
sect
ion
of th
e jo
int t
o ex
act s
cale
.2.
Div
ide
the
cros
s-se
ctio
n in
to ri
ght t
riang
les,
rect
angl
es a
ndsk
etch
in th
e de
sire
d re
info
rcem
ent.
3.M
easu
re th
e th
ickn
ess,
ang
les
angl
e le
g le
ngth
s, ro
ot o
peni
ngan
d th
e le
ngth
and
hei
ght o
f the
rein
forc
emen
t.4.
Tota
l the
wei
ght p
er fo
ot o
f eac
h of
the
elem
ents
from
the
char
tfo
r the
wei
ght p
er fo
ot o
f the
wel
d.
lbs.
/ft.
of
Rec
tan
gle
A lb
s./f
t. o
f T
rian
gle
Blb
s./f
t. R
ein
forc
emen
t C
TG
SH
Inch
es1/
16"
1/8"
3/16
"1/
4"3/
8"1/
2"5°
10°
15°
22 1
/2°
30°
45°
1/16
"1/
8"3/
16"
1/4"
1/8
.027
.053
.080
.106
.159
.212
.002
.005
.007
.011
.015
.027
3/16
.0
40.0
80.1
19.1
59.2
39.3
18.0
05.0
11.0
16.0
25.0
35.0
60.0
271/
4 .0
53.1
06.1
59.2
12.3
18.4
25.0
09.0
19.0
28.0
44.0
61.1
06.0
35
5/16
.0
66.1
33.1
99.2
65.3
90.5
31.0
15.0
29.0
44.0
69.0
96.1
66.0
44.8
843/
8 .0
80.1
59.2
39.3
18.4
78.6
37.0
21.0
42.0
64.0
99.1
38.2
39.0
53.1
067/
16
.091
.186
.279
.371
.557
.743
.028
.057
.087
.129
.188
.325
.062
.124
1/2
.106
.212
.318
.425
.637
.849
.037
.075
.114
.176
.245
.425
.071
.141
.212
GEN-26110_08.p65 7/10/01, 4:02 PM10
8-11
lbs.
/ft.
of
Rec
tan
gle
A lb
s./f
t. o
f T
rian
gle
Blb
s./f
t. R
ein
forc
emen
t C
TG
SH
Inch
es1/
16"
1/8"
3/16
"1/
4"3/
8"1/
2"5°
10°
15°
22 1
/2°
30°
45°
1/16
"1/
8"3/
16"
1/4"
9/16
.1
19.2
39.3
58.4
78.7
16.9
55.0
47.0
95.1
44.2
23.3
11.4
51.0
80.1
59.2
395/
8 .1
33.2
65.3
98.5
31.7
961.
061
.058
.117
.178
.275
.383
.664
.088
.177
.265
.354
11/1
6 .1
46.2
92.4
38.5
84.8
761.
167
.070
.142
.215
.332
.464
.804
.097
.195
.292
.389
3/4
.159
.318
.478
.637
.995
1.27
4.0
84.1
69.2
56.3
96.5
52.9
56.1
06.2
12.3
18.4
24
13/1
6 .1
72.3
45.5
17.6
901.
035
1.38
0.0
98.1
98.3
01.4
64.6
481.
121
.115
.230
.345
.460
7/8
.186
.371
.557
.743
1.11
41.
486
.114
.230
.349
.538
.751
1.30
0.1
24.2
48.3
71.4
9515
/16
.199
.398
.597
.796
1.19
41.
592
.131
.263
.400
.618
.863
1.49
3.1
33.2
66.3
98.5
301
.212
.425
.637
.849
1.27
41.
698
.149
.300
.456
.703
.981
1.69
8.1
41.2
83.4
24.5
66
1 1/
8 .2
39.4
78.7
16.9
551.
433
1.91
0.1
88.3
79.5
77.8
901.
241
2.14
9.1
59.3
18.4
77.6
371
1/4
.265
.531
.796
1.06
11.
592
2.12
3.2
32.4
68.7
121.
099
1.53
22.
653
.177
.354
.531
.707
1 3/
8 .2
92.5
84.8
761.
167
1.75
12.
335
.281
.567
.861
1.33
01.
853
3.21
0.1
95.3
89.5
84.7
771
1/2
.318
.637
.955
1.27
41.
910
2.54
7.3
34.6
741.
023
1.58
22.
206
3.82
1.2
12.4
24.6
37.8
49
1 5/
8 .3
45.6
901.
035
1.38
02.
069
2.75
9.3
93.7
921.
201
1.85
72.
589
4.48
4.2
30.4
60.6
90.9
201
3/4
.371
.743
1.11
41.
486
2.22
92.
972
.455
.918
1.39
32.
154
3.00
25.
200
.248
.495
.743
.990
1 7/
8 .3
90.7
961.
194
1.59
22.
388
3.18
4.5
231.
053
1.59
92.
473
3.44
75.
970
.266
.531
.796
1.06
12
.425
.649
1.27
41.
698
2.54
73.
396
.594
1.19
71.
820
2.81
33.
921
6.79
2.2
83.5
66.8
491.
132
2 1/
4 .4
78.9
551.
433
1.91
02.
865
3.82
1.7
521.
516
2.30
33.
561
4.96
38.
596
.318
.637
.955
1.27
32
1/2
.530
1.06
11.
592
2.12
33.
184
4.24
5.9
281.
871
2.84
44.
396
6.12
710
.613
.354
.707
1.06
11.
415
2 3/
4 .5
841.
167
1.75
12.
335
3.50
24.
669
1.12
32.
264
3.44
15.
319
7.41
412
.841
.389
.778
1.16
71.
556
3 .6
361.
274
1.91
02.
547
3.82
15.
094
1.33
72.
695
4.09
56.
330
8.82
315
.282
.424
.849
1.27
31.
698
GEN-26110_08.p65 7/10/01, 4:02 PM11
8-12
Wei
ght
Per
Met
er o
f W
eld
Met
al fo
r Fi
llet
Wel
dsan
d El
emen
ts o
f C
omm
on B
utt
Join
ts (K
g/m
)St
eel
Inst
ruct
ions
1.M
ake
a dr
awin
g of
the
cros
s-se
ctio
n of
the
join
t to
exac
t sca
le.
2.D
ivid
e th
e cr
oss-
sect
ion
into
righ
t tria
ngle
s, re
ctan
gles
and
sket
ch in
the
desi
red
rein
forc
emen
t.3.
Dim
ensi
on th
e th
ickn
ess,
ang
les
angl
e le
g le
ngth
s, ro
ot o
peni
ngan
d th
e le
ngth
and
hei
ght o
f the
rein
forc
emen
t.4.
Tota
l the
wei
ght p
er m
eter
of e
ach
of th
e el
emen
ts fr
om th
ech
art f
or th
e w
eigh
t per
met
er o
f the
wel
d.
Kg
/m o
f R
ecta
ng
le A
Kg
/m o
f T
rian
gle
BK
g/m
Rei
nfo
rcem
ent
CT
GS
Hm
m1.
588
3.17
54.
783
6.35
09.
525
12.7
005°
10°
15°
22 1
/2°
30°
45°
1.59
3.18
4.76
6.35
3.18
0.
040
0.07
90.
119
0.15
80.
237
0.31
50.
003
0.00
70.
010
0.01
60.
022
0.04
04.
76
0.06
00.
119
0.17
70.
237
0.35
60.
473
0.00
70.
016
0.02
40.
037
0.05
20.
089
0.04
06.
35
0.07
90.
158
0.23
70.
315
0.47
30.
632
0.01
30.
028
0.04
20.
065
0.09
10.
158
0.05
2
7.94
0.
098
0.19
80.
296
0.39
40.
580
0.79
00.
022
0.04
30.
065
0.10
20.
143
0.24
70.
065
1.31
59.
53
0.11
90.
237
0.35
60.
473
0.71
10.
948
0.03
10.
062
0.09
50.
147
0.20
50.
356
0.07
90.
158
11.1
1 0.
135
0.27
70.
415
0.55
20.
829
1.10
60.
042
0.08
50.
129
0.19
20.
280
0.48
40.
092
0.18
512
.70
0.15
80.
315
0.47
30.
632
0.94
81.
263
0.05
50.
112
0.17
00.
262
0.36
50.
632
0.10
60.
210
0.31
5
GEN-26110_08.p65 7/10/01, 4:02 PM12
8-13
Kg
/m o
f R
ecta
ngl
e A
Kg
/m o
f T
rian
gle
BK
g/m
Rei
nfo
rcem
ent
CT
GS
Hm
m1.
588
3.17
54.
783
6.35
09.
525
12.7
005°
10°
15°
22 1
/2°
30°
45°
1.59
3.18
4.76
6.35
14.2
9 0.
177
0.35
60.
533
0.71
11.
065
1.42
10.
070
0.14
10.
214
0.33
20.
463
0.67
10.
119
0.23
70.
356
15.8
8 0.
198
0.39
40.
592
0.79
01.
184
1.57
90.
086
0.17
40.
265
0.40
90.
570
0.98
80.
131
0.26
30.
394
0.52
717
.46
0.21
70.
434
0.65
20.
869
1.30
31.
736
0.10
40.
211
0.32
00.
494
0.69
01.
196
0.14
40.
290
0.43
40.
579
19.0
5 0.
237
0.47
30.
711
0.94
81.
481
1.89
60.
125
0.25
10.
381
0.58
90.
821
1.42
30.
158
0.31
50.
473
0.63
1
20.6
4 0.
256
0.51
30.
769
1.02
71.
540
2.05
30.
146
0.29
50.
448
0.69
00.
964
1.66
80.
171
0.34
20.
513
0.68
422
.23
0.27
70.
552
0.82
91.
106
1.65
82.
211
0.17
00.
342
0.51
90.
800
1.11
71.
934
0.18
50.
369
0.55
20.
737
23.8
1 0.
296
0.59
20.
888
1.18
41.
777
2.36
90.
195
0.39
10.
595
0.91
91.
284
2.22
20.
198
0.39
60.
592
0.78
925
.40
0.31
50.
632
0.94
81.
263
1.89
62.
527
0.22
20.
446
0.67
91.
056
1.46
02.
527
0.21
00.
421
0.63
10.
842
28.5
8 0.
356
0.71
11.
065
1.42
12.
132
2.84
20.
280
0.56
40.
859
1.32
41.
847
3.19
80.
237
0.47
30.
710
0.94
831
.75
0.39
40.
790
1.18
41.
579
2.36
93.
159
0.34
50.
696
1.05
91.
635
2.28
03.
948
0.26
30.
527
0.79
01.
052
34.9
3 0.
434
0.86
91.
303
1.73
82.
605
3.47
40.
418
0.84
41.
281
1.97
92.
757
4.77
60.
290
0.57
90.
869
1.15
638
.10
0.47
30.
948
1.42
11.
896
2.84
23.
790
0.49
71.
003
1.52
22.
354
3.28
35.
686
0.31
50.
631
0.94
81.
263
41.2
8 0.
513
1.02
71.
540
2.05
33.
079
4.10
50.
585
1.17
81.
787
2.76
33.
852
6.67
20.
342
0.68
41.
027
1.36
944
.45
0.55
21.
106
1.65
82.
211
3.31
74.
422
0.67
71.
366
2.07
33.
205
4.46
77.
738
0.36
90.
737
1.10
61.
473
47.6
3 0.
580
1.18
41.
777
2.36
93.
553
4.73
80.
778
1.56
72.
379
3.67
95.
129
8.88
30.
396
0.79
01.
184
1.57
950
.80
0.63
21.
263
1.89
62.
527
3.79
05.
053
0.88
41.
781
2.70
84.
186
5.83
410
.106
0.42
10.
842
1.26
31.
684
57.1
5 0.
711
1.42
12.
132
2.84
24.
263
5.68
61.
119
2.25
63.
427
5.29
87.
385
12.7
910.
473
0.94
81.
421
1.89
463
.50
0.78
91.
579
2.36
93.
159
4.72
36.
317
1.38
12.
784
4.23
26.
542
9.11
715
.792
0.52
71.
052
1.57
92.
106
69.8
5 0.
869
1.73
62.
605
3.47
45.
211
6.94
71.
671
3.36
95.
120
7.91
611
.032
19.1
070.
579
1.15
81.
736
2.31
576
.20
0.94
61.
898
2.84
23.
790
5.68
67.
580
1.98
94.
010
6.09
39.
420
13.1
2922
.740
0.63
11.
263
1.89
42.
527
GEN-26110_08.p65 7/10/01, 4:02 PM13
8-14
ES
AB
WE
LD M
ETA
LC
OS
T C
OM
PAR
ATO
RW
OR
KS
HE
ET
Prep
ared
For
:D
ate:
(1) P
ropo
sed
Met
hod
Cos
t Cal
cula
tion
(2) P
rese
nt M
etho
d C
ost C
alcu
latio
nR
esul
t(C
ost R
educ
tion)
or
C
ost I
ncre
ase
(3)
(4)
(5)
(4)
(6)
(5-6
)
Labo
r &=
Labo
r & O
verh
ead
Cos
t/Hr
==
==
=O
verh
ead
Dep
ositi
onR
ate
(lbs/
hr)
XO
pera
ting
Fact
or
X=
X=
(3)
(4)
(9)
(5)
(4)
(6)
(5-6
)
Elec
trod
eEl
ectro
de C
ost/l
b=
==
Dep
ositi
on E
ffici
ency
(3)
(4)
(5)
(4)
(6)
(5-6
)
Gas
Gas
Flo
w R
ate
(Cu
ft/hr
)X
G
as C
ost/C
u ft.
=X
==
X=
=
Dep
ositi
on R
ate
(lbs/
hr)
(7)
(8)
(7-8
)
Sum
of t
he A
bove
Tota
l Var
iabl
e C
ost/l
bD
epos
ited
Wel
d M
etal
=To
tal V
aria
ble
Cos
t/lb
Dep
osite
d W
eld
Met
al=
Tota
l
Poun
ds o
f Wel
d M
etal
and
Wel
der M
an H
ours
Req
uire
d to
Am
ortiz
e Eq
uipm
ent C
ost
Equ
ipm
ent C
ost
Pow
er S
uppl
yEq
uipm
ent C
ost i
n D
olla
rsPo
unds
of W
eld
Met
al÷
Dep
ositi
on F
acto
r=
Wel
der M
an H
ours
Wire
Fee
der
Savi
ngs/
lbR
equi
red
toR
equi
red
toG
un &
Acc
esso
ries
Amor
tize
Cos
tA
mor
tize
Cos
t(9
)
Tota
l=
÷=
Hou
rs
Form
ulas
for C
alcu
latin
g C
ost
per P
ound
Dep
osite
d W
eld
Met
al
GEN-26110_08.p65 7/10/01, 4:02 PM14
9-1
RECOMMENDED ESABFILLER METALS FOR WELDINGTHE ASTM STEELSSection 9
DESCRIPTION PAGE
ASTM Listing ............................................ 9-2 to 9-38
GEN-26110_09.p65 7/10/01, 4:02 PM1
9-2
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A1-
84A
ll W
eigh
tsD
AA
: 10
018M
M; A
R:
309H
, 31
2A
R:
ER
309/
309L
, E
R31
2U
M 7
09-5
/SA
40B
DS
: 90
00D
1, D
S II
100
-D1
A2-
80A
ll C
lass
esD
AA
: 90
18C
M, 1
0018
MM
; AR
: 31
2A
R:
ER
310,
ER
312
UM
709
-5/S
A40
BD
S:
T-9
5-B
3, 9
000-
B3,
98-
CM
, SB
: 31
2
A3-
87G
rade
1&
2S
W:
10P
+, 1
0P, S
W-1
4, S
W-
15, S
W-1
5IP
SA
: 29
S, 8
2, 8
6, 8
7HP
UM
80/
SA
81
DS
: 11
1AC
, T-5
, T-7
5, S
P, 7
000
,(U
ltra:
R-7
0,
7100
, 710
0 LC
, II 7
0, II
71 )
; CW
: 70
, Ultr
aA
27-8
7A
llA
AA
: 70
18, 7
018-
1S
A:
29S
, 82,
86,
87H
PU
M 8
0/S
A 8
1, U
M 3
50/S
A 8
1,D
S:
111A
C, 7
000,
II 7
0T-1
2, T
-5, T
-75,
UM
50/
SA
81
(Ultr
a: R
70, 7
100,
710
0 LC
, II7
0, II
71);
CW
: 70
, Ultr
aA
36-8
8bA
SW
: S
W-1
4, S
W-1
5,
SA
: 29
S, 8
2, 8
6, 8
7HP
UM
80/
SA
81,
UM
429
/SA
81D
S:
111A
C, 7
000,
II 7
0T-1
2, T
-5, T
-75,
SW
-15I
P, 7
024;
(Ultr
a: R
-70,
II 7
0, II
71)
;A
A:
7018
, 801
8C
W:
70, U
ltra;
CS
: 40
, 11,
7
Rec
omm
ende
d E
SA
B F
iller
Met
als
for W
eldi
ng th
e A
ST
M S
teel
sTh
is s
ectio
n lis
ts th
e ES
AB fi
ller m
etal
s th
at c
an b
e us
ed to
wel
d th
e fo
llow
ing
ASTM
ste
els.
Tho
se s
teel
s th
at h
ave
been
dis
cont
inue
d as
of 1
990
inth
e AS
TM B
ook
of S
tand
ards
hav
e be
en d
elet
ed.
Prop
ertie
s an
d ch
emic
al d
epos
its c
an c
hang
e de
pend
ing
on y
our s
peci
fic w
eldi
ng c
ondi
tions
. N
oat
tem
pt h
as b
een
mad
e to
rec
omm
end
wel
ding
pro
cedu
res
sinc
e th
ey v
ary
with
the
proc
ess
bein
g us
ed, m
etal
thic
knes
s, c
arbo
n co
nten
t, al
loy
cont
ent a
nd o
ther
fact
ors.
Pr
ehea
t tem
ps a
re s
ugge
sted
ran
ges
for
diffe
rent
type
s of
ste
els.
C
heck
you
r w
eldi
ng p
roce
dure
for
a m
ore
spec
ific
preh
eat t
empe
ratu
re.
Whe
n m
ore
than
one
fille
r met
al is
list
ed, c
onsu
lt th
e in
divi
dual
pro
duct
list
ings
in th
is b
ookl
et a
nd s
elec
t the
one
mos
t sui
tabl
efo
r yo
ur a
pplic
atio
n.
PREH
EAT
TEM
P.:
NO
TES:
A-
250-
350°
F (1
21-1
77°C
)S
MA
W-
Shie
lded
Met
al A
rc W
eldi
ngA A
-At
om A
rcC
W-
Cor
ewel
dSB
-Sh
ield
-Brig
htB
-35
0-45
0°F
(177
-232
°C)
GM
AW
-G
as M
etal
Arc
Wel
ding
AR-
Arc
aloy
DS
-D
ual S
hiel
dSW
-Su
rew
eld
C-
500-
600°
F (2
60-3
16°C
)SA
W-
Subm
erge
d Ar
c W
eldi
ngA
S-
Allo
y Sh
ield
N A
-N
icke
l Arc
UM-
Uni
onm
elt
D-
600-
800°
F (3
16-4
27°C
)FC
AW
-Fl
ux C
ored
Arc
Wel
ding
CB
-C
ore-
Brig
htN
C-
Nic
ore
W A
-W
ear-
Arc
MC
AW
-M
etal
Cor
ed A
rc W
eldi
ngC
S-
Cor
eshi
eld
S A
-Sp
oola
rcW
M-
Wea
r-O-M
atic
GEN-26110_09.p65 7/10/01, 4:02 PM2
9-3
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A47
-84
All
CN
A:
99, 5
5, 5
50N
C:
55A
48-8
3A
llC
NA
: 99
, 55,
550
NC
: 55
A49
-87
BA
A:
1001
8MM
UM
009
1/S
A 1
00D
S:
II 10
0D1,
II 1
00A
53-8
8aS
W:
10P
+, 1
0P, S
W-1
4;
SA
: 29
S, 8
2, 8
6, 8
7HP
UM
350
/SA
81
(S.R
.)D
S:
111A
C, 7
000,
II 7
0T-1
2, T
-5, T
-75,
AA
: 70
18(U
ltra:
R70
, 710
0, 7
100
LC, I
I70,
II71
);C
W:
70, U
ltra
A67
-84
Gra
de 1
AA
A:
8018
, 801
8WD
S:
II 80
Ni1
, 800
0 N
i2, 8
8W,
8100
WG
rade
2A
A:
1001
8WD
S:
II 10
0D1,
II 1
00A
74B
NA
: 99
, 55,
550
NC
: 55
A82
-88
AA
: 70
18S
A:
29S
, 82,
86
UM
80/
SA
81
DS
: 11
1AC
, 700
0, II
70T
-12,
T-5
, T-7
5,(U
ltra:
R70
, 710
0, 7
100
LC, I
I70,
II71
);C
W:
70, U
ltra
A10
5-87
aB
AA
: 70
18S
A:
86U
M 8
0/S
A 8
1D
S:
111A
C, 7
000,
II 7
0T-1
2, T
-5, T
-75,
(Ultr
a: R
70, 7
100,
710
0 LC
, II7
0, II
71);
CW
: 70
, Ultr
aA
106-
88a
Gra
des
A, B
, CA
AA
: 70
18S
A:
86U
M 8
0/S
A 8
1,D
S:
111A
C, 7
000,
II 7
0T-1
2, T
-5, T
-75,
B
UM
350
/SA
81
(S.R
.)(U
ltra:
R70
, 710
0, 7
100
LC, I
I70,
II71
);C
CW
: 70
, Ultr
aA
108-
81 (
1988
)10
08-1
020
SW
: 10
P+
, 10P
; AA
: 701
8S
A:
29S
, 82,
86
UM
80/
SA
81
DS
: 11
1AC
, 700
0, II
70T
-12,
T-5
, T-7
5,10
22-1
215
AA
: 70
18S
A:
86(U
ltra:
R-7
0, 7
100,
710
0 LC
, II
70, I
I 71)
;C
W:
70, U
ltra
A10
9-88
All
AA
A:
7018
SA
: 29
S, 8
2, 8
6U
M 8
0/S
A 8
1D
S:
111A
C, 7
000,
II 7
0T-1
2, T
-5, T
-75,
(Ultr
a: R
70, 7
100,
710
0 LC
, II7
0, II
71);
CW
: 70
, Ultr
aA
123-
84S
W:
SW
14, 1
0PS
A:
86, 8
7HP
CS
: 10
, 11
, 15
A12
6-84
NA
: 99
, 55,
550
NC
: 55
A12
8-86
WA
: N
iMn,
WH
WM
: N
iMn,
WH
GEN-26110_09.p65 7/10/01, 4:02 PM3
9-4
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A13
1-88
A th
ru D
SA
A:
7018
SA
: 86
UM
350
/SA
81,
UM
651
VF
/SA
81D
S:
111A
C, 7
000,
II 7
0T-1
2, T
-5, T
-75,
(Ultr
a: R
-70,
710
0, 7
100
LC, I
I 70
, II 7
1);
CW
: 70
, Ultr
a;
A, B
, D, D
S, A
H32
,D
S:
II 80
Ni1
, 800
0-N
i2, 8
5C1,
T90
C1
AH
36, D
H32
/36
A13
4-85
SW
: 10
P+
, 10P
SA
: 29
S, 8
2, 8
6U
M 8
0/S
A 8
1D
S:
111A
C, 7
000,
II 7
0T-1
2, T
-5, T
-75,
(Ultr
a: R
-70,
710
0, 7
100
LC, I
I 70
, II 7
1);
CW
: 70
, Ultr
aA
135-
85A
& B
AA
: 70
18S
A:
86D
S:
111A
C, 7
000,
II 7
0T-1
2, T
-5, T
-75,
(Ultr
a: R
-70,
710
0, 7
100
LC, I
I 70
, II 7
1);
CW
: 70
, Ultr
aA
139-
88A
llA
A:
7018
SA
: 86
DS
: 11
1AC
, 700
0, II
70T
-12,
T-5
, T-7
5,
(Ultr
a: R
-70,
710
0, 7
100
LC, I
I 70
, II 7
1);
CW
: 70
, Ultr
aA
148-
8480
-40,
80-
50A
AA
: 80
18C
M, 8
018C
1S
A:
83, H
i-84,
86
DS
: 88
C3,
II 8
0Ni1
90-6
0B
AA
: 90
18D
S:
98, 9
000M
, 910
0K2,
II 1
01T
M10
5-85
BA
A:
1001
8MM
DS
: II
100,
T-8
, II 1
01T
M11
5-95
BA
A:
1201
8D
S:
II 11
0, T
-115
135-
125
CA
A:
4130
, 414
0, 4
340
DS
: T
-413
0, 4
130L
NA
159-
83A
llC
NA
: 99
, 55,
550
NC
: 55
A16
1-88
Low
Car
bon
AA
A:
7018
SA
: 86
DS
: 11
1AC
, 700
0, T
-5, T
-75;
(U
ltra:
R-7
0,71
00, 7
100
LC, I
I 70,
II 7
1 ); C
W:
70, U
ltra
Gra
de T
-1A
AA
: 70
18M
oD
S:
7000
-A1,
710
0 LC
A16
7-88
301,
302
, 302
B,
AR
: 30
8H, 3
08L
AR
: E
R30
8/30
8L, O
K 1
0.93
Flu
xC
B:
308L
; SB
: 30
8L30
4, 3
05, 3
0830
4LA
R:
308L
AR
: E
R30
8/30
8L, O
K 1
0.93
Flu
xC
B:
308L
; SB
: 30
8L30
9, 3
09S
AR
: 30
9H, 3
09L
AR
: E
R30
9/30
9L, O
K 1
0.93
Flu
xC
B:
309L
; SB
: 30
9L30
9 C
bA
R:
309C
b
GEN-26110_09.p65 7/10/01, 4:02 PM4
9-5
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A16
7-88
310,
310
SA
R:
310
AR
: E
R31
0, O
K 1
0.93
Flu
x(c
ont'd
)31
6, 3
16L
AR
: 31
6H, 3
16L
AR
: E
R31
6/31
6L, O
K 1
0.93
Flu
xC
B:
316L
; SB
: 31
6L31
7, 3
17L
AR
: 31
7, 3
17L
SB
: 31
7L32
1, 3
47, 3
48A
R:
347
AR
: E
R34
7, O
K 1
0.93
Flu
xC
B:
347
XM
-15
AR
: 31
0A
R:
ER
310,
OK
10.
93 F
lux
A17
6-87
403,
405
, 409
,A
R:
410
410,
410
HA
R:
410
442,
446
AR
: 30
9H, 3
10A
178-
87A
& C
AA
: 70
18S
A:
86D
S:
111A
C, 7
000,
T-5
, T-7
5, (
Ultr
a: R
-70,
7100
); C
W:
70, U
ltra.
710
0 LC
A17
9-88
SW
: 10
P+
, 10P
, SW
-14;
AA
: 70
18S
A:
29S
, 82,
86
UM
80/
SA
81
DS
: 11
1AC
, 700
0, II
70T
-12,
T-5
, T-7
5,
(Ultr
a: R
-70,
II 7
0, II
71)
; CW
: 7
0, U
ltra;
CS
: 40
, 11,
7A
181-
8760
& 7
0A
A:
7018
SA
: 29
S, 8
2, 8
6U
M 8
0/S
A 8
1D
S:
111A
C, 7
000,
II 7
0T-1
2, T
-5, T
-75,
(U
ltra:
R-7
0, 7
100,
710
0 LC
, II 7
0, II
71)
;C
W:
70, U
ltra;
CS
: 40
, 11,
7A
182-
88F
1A
AA
: 70
18M
oS
A:
83, H
i-84
DS
: 70
00-A
1F
2, F
11, F
12B
AA
: 80
18C
MD
S:
T-8
5-B
2, 8
8CM
F5,
F5a
AR
: 30
9H, 3
10;
AA
: 80
18 B
6 (L)
AR
: E
R30
9/30
9L, E
R31
0, O
K 1
0.93
F
lux
CB
: 30
9L; S
B:
309L
; AR
: M
C41
0
F6a
Cla
sses
1 &
2A
R:
410,
309
H, 3
10F
21, F
22, F
22a
BA
A:
9018
CM
DS
: T
-95-
B3,
900
0-B
3, 9
8-C
MF
429,
F43
0F
304,
F30
4H,
F30
4NA
R:
308H
, 308
LA
R:
ER
308/
308L
, OK
10.
93 F
lux
CB
: 30
8L; S
B 3
08L
F30
4L, F
304L
NA
R:
308L
AR
: E
R30
8LS
iC
B:
308L
; SB
308
LF
310
AR
: 31
0A
R:
ER
310
GEN-26110_09.p65 7/10/01, 4:02 PM5
9-6
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A18
2-88
(con
t'd)
F31
6, F
316H
, F
316N
AR
: 31
6H, 3
16L
CB
: 31
6L; S
B 3
16L
F31
6L, F
316L
NA
R:
316L
AR
: E
R31
6L, O
K 1
0.93
Flu
xC
B:
316L
; SB
316
LF
317
SB
: 31
7LF
317L
AR
: 31
7LS
B:
317L
F32
1, F
321H
AR
: 34
7A
R:
ER
347,
OK
10.
93 F
lux
CB
: 34
7F
347,
F34
7H,
AR
: 34
7A
R:
ER
347,
OK
10.
93 F
lux
CB
: 34
7F
348,
F34
8HA
R:
347
AR
: E
R34
7, O
K 1
0.93
Flu
xC
B:
347
A19
2-88
AA
: 70
18, 7
018M
oS
A:
29S
, 82
DS
: 70
00, 7
000
A1,
111
AC
, II
70T
-12,
(U
ltra:
7100
, 710
0 LC
, II 7
0, II
71 )
; C
W:
70, U
ltra
A19
3-88
B5
AR
: 30
9H, 3
10; A
A:
8018
B
6(L)
AR
: E
R31
0, O
K 1
0.93
Flu
xC
B:
309L
; SB
309
L; D
S:
B6;
AR
: M
C41
0
B6,
B6X
AR
: 41
0B
7, B
7MB
AA
: 80
18C
M, 4
140
DS
: 88
CM
, T-8
5-B
2B
16B
AA
: 90
18C
MD
S:
98C
M, T
-95-
B3
B8,
B8A
AR
: 30
8HA
R:
ER
308/
308L
, OK
10.
93 F
lux
CB
: 30
8L; S
B:
308L
B8C
, B8C
A, B
8T,
B8T
AA
R:
347
AR
: E
R34
7, O
K 1
0.93
Flu
xC
B:
347;
SB
: 34
7
B8M
, B8M
A, B
8M2,
B
8M3
AR
: 31
6H, 3
16L
AR
: E
R31
6/31
6L, O
K 1
0.93
Flu
xC
B:
316L
; SB
: 31
6L
A19
9-88
T
-4B
AA
: 90
18C
MD
S:
98C
M, T
-95-
B3
or&
AR
: 30
9H, 3
10A
R:
ER
310,
OK
10.
93 F
lux
CB
: 30
9L; S
B:
309L
A20
0-88
T-5
AA
: 80
18 B
6 (L)
T-7
, T-9
AR
: 30
9H, 3
10A
R:
ER
310,
OK
10.
93 F
lux
CB
: 30
9L; S
B 3
09L
T-1
1B
AA
: 80
18C
MD
S:
88C
M, T
-85-
B2
T-2
1A
R:
309H
, 310
; AA
: 80
18
B6 (
L)A
R:
ER
310,
OK
10.
93 F
lux
CB
: 30
9L; S
B:
309L
; DS
: B
6
T-2
2B
AA
: 90
18C
MD
S:
98C
M, T
-95-
B3
GEN-26110_09.p65 7/10/01, 4:02 PM6
9-7
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A20
2-82
(19
88)
AB
AA
: 80
18C
MD
S:
88C
M, 8
000-
B2,
T-8
5-B
2B
BA
A:
9018
CM
, 100
18M
MD
S:
98C
M, 9
000B
3, T
-85-
B3
A20
3-82
(19
88)
A, B
AA
: 80
18C
1G
rade
A A
S N
i2S
/651
VF
DS
: 85
-C1,
800
0 N
i2D
, E, F
AA
: 80
18C
2D
S:
9000
-C1
A20
4-88
A, B
AA
A:
7018
Mo
DS
: 70
00-A
1C
AA
A:
1001
8D
S:
9000
MA
209-
88A
llA
AA
: 70
18M
oS
A:
83, H
i-84
UM
80/
SA
40A
DS
: 70
00-A
1A
210-
88A
llB
AA
: 70
18S
A:
86D
S:
7000
, 111
AC
, II 7
0T-1
2, (
Ultr
a: 7
100,
710
0 LC
, II 7
0, II
71)
; CW
: 70
, Ultr
aA
211-
75 (
1985
)A
A:
7018
SA
: 86
DS
: 70
00, 1
11A
C, I
I 70T
-12,
(U
ltra:
710
0, 7
100
LC, I
I 70,
II 7
1 ); C
W:
70, U
ltra
A21
3-88
aT
2, T
11, T
12, T
17B
AA
: 80
18C
MD
S:
T-8
5-B
2, 8
8CM
T5,
T5B
, T5C
AR
: 30
9H, 3
10; A
A:
8018
B
6(L)
AR
: E
R31
0, O
K 1
0.93
Flu
xC
B:
309L
; SB
: 30
9L; D
S:
B6
T7,
T9
AR
: 30
9H, 3
10A
R:
ER
310,
OK
10.
93 F
lux
CB
: 30
9L; S
B:
309L
T21
AR
: 30
9H, 3
10; A
A:
8018
B
6 (L)
AR
: E
R31
0, O
K 1
0.93
Flu
xD
S:
T-9
5-B
3, 8
8CM
; CB
: 30
9L;
SB
309
L
T22
AA
: 90
18C
MD
S:
98C
M, T
-95-
B3
TP
201,
TP
202,
A
R:
308H
AR
: E
R30
8L, O
K 1
0.93
Flu
xC
B:
308L
; SB
: 30
8LT
P30
4LT
P30
4LA
R:
308L
AR
: E
R30
8L, O
K 1
0.93
Flu
xC
B:
308L
; SB
: 30
8LT
P30
9Cb
AR
: 30
9Cb
TP
310C
bA
R:
310C
bT
P31
6, T
P31
6LA
R:
316H
, 316
LA
R:
ER
316L
, OK
10.
93 F
lux
CB
: 31
6L; S
B:
316L
TP
321,
347
, 348
AR
: 34
7A
R:
ER
347,
OK
10.
93 F
lux
CB
: 34
7; S
B:
347
A21
4-88
AA
: 70
18S
A:
29S
, 82,
86
UM
80/
SA
81
DS
: 11
1AC
, 700
0, II
70T
-12,
T-5
, T-7
5,
(Ultr
a: R
-70,
710
0, 7
100
LC, I
I 70,
II 7
1);
CW
: 70
, Ultr
a
GEN-26110_09.p65 7/10/01, 4:02 PM7
9-8
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A21
6-84
bW
CA
AA
: 70
18S
A:
29S
, 82,
86
UM
350
/SA
80,
UM
50/
SA
80
DS
: 11
1AC
, 700
0, II
70T
-12,
T-5
, T-7
5,
UM
50/
SA
81,
UM
429
/SA
81
(S.R
.)(U
ltra:
R-7
0, 7
100,
710
0 LC
, II
70, I
I 71)
;C
W:
70, U
ltra
WC
BA
AA
: 70
18M
oU
M 2
82/S
A 8
1D
S:
7000
-A1
WC
CA
A:
9018
SA
: 83
, Hi-8
4D
S:
98, 9
000M
A21
7-87
WC
1A
AA
: 70
18M
oS
A:
83, H
i-84
DS
: 70
00-A
1W
C4,
WC
5, W
C6,
BA
A:
8018
CM
DS
: T
-85-
B2,
88C
M, 8
000-
B2
WC
11W
C9
BA
A:
9018
CM
DS
: 98
CM
, T-9
5-B
3, 9
000-
B3
C5
AR
: 30
9H, 3
10; A
A:
8018
B
6 (L)
AR
: E
R31
0, O
K 1
0.93
Flu
xC
B:
309L
; SB
: 30
9L; D
S:
B6
A22
0-88
All
NA
: 99
A22
5-86
Gra
de C
AA
: T
DS
: II
110,
T-1
15G
rade
DA
A:
1001
8D
S:
II 10
0A
226-
88A
A:
7018
SA
: 29
S, 8
6D
S:
7000
, 111
AC
, II 7
0T-1
2, T
-5, T
-75,
(Ultr
a: 7
100,
710
0 LC
, II 7
0, II
71)
;C
W:
70, U
ltra
A23
4-88
bW
PB
, WP
CA
A:
7018
SA
: 29
SD
S:
7000
, 111
AC
, II 7
0T-1
2, T
-5, T
-75,
(Ultr
a: 7
100,
710
0 LC
, II 7
0, II
71)
;C
W:
70, U
ltra
WP
1A
AA
: 70
18M
oS
A:
83, H
i-84
DS
: 70
00-A
1W
P11
, WP
12B
AA
: 80
18C
MD
S:
T-8
5-B
2, 8
8CM
, 800
0-B
2W
P22
BA
A:
9018
CM
DS
: 98
CM
, T-9
5-B
3, 9
000-
B3
WP
5A
R:
309H
, 310
; AA
: 80
18
B6 (
L)A
R:
ER
310,
OK
10.
93 F
lux
CB
: 30
9L; S
B:
309L
; DS
: B
6
WP
RA
A:
8018
WS
A:
WS
DS
: 88
W, 8
100W
; CW
: W
GEN-26110_09.p65 7/10/01, 4:02 PM8
9-9
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A24
0-88
c20
1, 2
02, 3
02,
AR
: 30
8H, 3
08L
AR
: E
R30
8/30
8LA
R:
ER
308L
, OK
10.
93 F
lux
CB
: 30
8L; S
B:
308L
304,
305
AR
: 30
8H, 3
08L
AR
: E
R30
8/30
8L, O
K 1
0.93
Flu
x30
9SA
R:
309
AR
: E
R30
9/30
9L, O
K 1
0.93
Flu
xC
B:
309L
; SB
: 30
9L30
9Cb
AR
: 30
9Cb
310S
AR
: 31
0A
R:
ER
310,
OK
10.
93 F
lux
310C
bA
R:
310C
b31
6A
R:
316H
AR
: E
R31
6/31
6L, O
K 1
0.93
Flu
xC
B:
316L
; SB
: 31
6L31
6LA
R:
316L
AR
: E
R31
6L, O
K 1
0.93
Flu
xC
B:
316L
; SB
: 31
6L31
7A
R:
317
SB
: 31
7L32
1, 3
47, 3
48A
R:
347
AR
: E
R34
7, O
K 1
0.93
Flu
xC
B:
347;
SB
: 34
741
0A
R:
410
AR
: M
C41
043
0A
242-
88A
ll 2
" U
pA
AA
: 80
18N
, 801
8WS
A:
WS
UM
429
/SA
81
DS
: 88
W, 8
100W
; CW
: W
A24
9-88
a20
1, 2
02, 3
04, 3
05A
R:
308H
AR
: E
R30
8/30
8L, O
K 1
0.93
Flu
xC
B:
308L
; SB
: 30
8L
304L
AR
: 30
8LA
R:
ER
308L
, OK
10.
93 F
lux
CB
: 30
8L; S
B:
308L
309C
bA
R:
309C
b31
0Cb
AR
: 31
0Cb
316
AR
: 31
6HA
R:
ER
316/
316L
, OK
10.
93 F
lux
CB
: 31
6L; S
B:
316L
316L
AR
: 31
6LA
R:
ER
316L
, OK
10.
93 F
lux
CB
: 31
6L; S
B:
316L
317
SB
: 31
7L31
7LA
R:
317L
SB
: 31
7L32
1, 3
47, 3
48A
R:
347
AR
: E
R34
7, O
K 1
0.93
Flu
xC
B:
347
A25
0-88
aT
1, T
1a, T
1bA
AA
: 70
18M
oD
S:
7000
-A1
T2
BA
A:
8018
CM
, 701
8-B
2LD
S:
8000
-B2,
800
0-B
2LT
-11
BA
A:
8018
CM
, 701
8-B
2LD
S:
88C
M, 8
000-
B2,
T-8
5-B
2, 8
000-
B2L
T-2
2B
AA
: 90
18C
M, 8
018-
B3L
DS
: 98
CM
, 900
0-B
3, T
-95-
B3
, 900
0-B
3L
GEN-26110_09.p65 7/10/01, 4:02 PM9
9-10
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A25
2-88
All
SW
: 10
P+
, 10P
, SW
-14;
S
A:
29S
, 82
DS
: 11
1AC
, 700
0, T
-5, T
-75,
A
A:
7018
(Ultr
a: R
-70,
710
0, 7
100
LC);
CW
: 70
, Ultr
a; C
S:
40, 1
1, 7
A26
6-88
1A
A:
7018
SA
: 29
S, 8
2, 8
6D
S:
111A
C, 7
000,
T-5
, T-7
5,
(Ultr
a: R
-70,
710
0, 7
100
LC);
C
W:
70, U
ltra;
CS
: 40
, 11,
72,
4, 3
AA
A:
8018
CM
, 701
8-B
2LS
A:
86D
S:
88C
3, 8
5C1,
II 8
0Ni1
A26
8-88
aT
P40
5, T
P41
0A
R:
410
AR
: M
C41
0T
P43
0A
269-
8830
4A
R:
308H
AR
: E
R30
8/30
8L, O
K 1
0.93
Flu
xC
B:
308L
; SB
: 30
8L30
4LA
R:
308L
AR
: E
R30
8L, O
K 1
0.93
Flu
xC
B:
308L
; SB
: 30
8L31
6A
R:
316H
AR
: E
R31
6/31
6L, O
K 1
0.93
Flu
xC
B:
316L
; SB
: 31
6L31
6LA
R:
316L
AR
: E
R31
6L, O
K 1
0.93
Flu
xC
B:
316L
; SB
: 31
6L32
1, 3
47, 3
48A
R:
347
AR
: E
R34
7, O
K 1
0.93
Flu
xC
B:
347;
SB
: 34
7A
270-
88a
TP
304
AR
: 30
8HA
R:
ER
308/
308L
, OK
10.
93 F
lux
CB
: 30
8L; S
B:
308L
TP
304L
AR
: 30
8LA
R:
ER
308L
, OK
10.
93 F
lux
CB
: 30
8L; S
B:
308L
TP
316
AR
: 31
6HA
R:
ER
316/
316L
, OK
10.
93 F
lux
CB
: 31
6L; S
B:
316L
TP
316L
AR
: 31
6LA
R:
ER
316L
, OK
10.
93 F
lux
CB
: 31
6L; S
B:
316L
A27
1-88
TP
304
AR
: 30
8HA
R:
ER
308/
308L
, OK
10.
93 F
lux
CB
: 30
8L; S
B:
308L
TP
304H
AR
: 30
8HA
R:
ER
308/
308H
, OK
10.
93 F
lux
SB
: 30
8HT
P31
6A
R:
316H
AR
: E
R31
6/31
6L, O
K 1
0.93
Flu
xC
B:
316L
; SB
: 31
6LT
P31
6HA
R:
316H
TP
321,
347
AR
: 34
7A
R:
ER
347,
OK
10.
93 F
lux
CB
: 34
7; S
B:
347
A27
6-89
201,
202
, 302
, A
R:
308H
AR
: E
R30
8/30
8L, O
K 1
0.93
Flu
xC
B:
308L
; SB
: 30
8L30
4, 3
08A
R:
308H
SB
: 30
8H30
4L, 3
05A
R:
308L
AR
: E
R30
8L, O
K 1
0.93
Flu
xC
B:
308L
; SB
: 30
8L30
9A
R:
309
AR
: E
R30
9/30
9L, O
K 1
0.93
Flu
xC
B:
309L
; SB
: 30
9L30
9Cb
AR
: 30
9Cb
GEN-26110_09.p65 7/10/01, 4:02 PM10
9-11
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A27
6-89
310
AR
: 31
0A
R:
ER
310,
OK
10.
93 F
lux
(con
t'd)
310C
bA
R:
310C
b31
6A
R:
316H
AR
: E
R31
6/31
6L, O
K 1
0.93
Flu
xC
B:
316L
; SB
: 31
6L31
6LA
R:
316L
AR
: E
R31
6L, O
K 1
0.93
Flu
xC
B:
316L
; SB
: 31
6L31
7A
R:
317
SB
: 31
7L32
1, 3
47, 3
48A
R:
347
AR
: E
R34
7, O
K 1
0.93
Flu
xC
B:
347;
SB
: 34
740
3, 4
05, 4
10,
AR
: 41
0A
R:
MC
410
414,
421
AR
: 41
0A
276-
8944
6A
R:
309H
, 310
AR
: E
R30
9/30
9L, E
R31
0, O
K
CB
: 30
9L; S
B:
309L
(con
t’d.)
10.9
3 F
lux
A27
8-85
All
NA
: 99
, 550
, 55
NC
: 55
A28
3-87
Gra
des
A, B
, CS
W:
10P
+, 1
0P; A
A:
7018
SA
: 29
S, 8
2D
S:
111A
C, 7
000,
II 7
0T-1
2, T
-5, T
-75,
R
-70,
710
0 LC
, II 7
0, II
71)
; CW
: 70
, Ultr
a;C
S:
40, 1
1G
rade
DA
A:
7018
SA
: 29
S, 8
2, 8
6D
S:
111A
C, 7
000,
II 7
0T-1
2, T
-5, T
-75,
(U
ltra:
R-7
0, II
70,
II 7
1); C
W:
70,
Ultr
a;C
S:
40, 1
1, 7
A28
4-88
Gra
des
C &
DS
W:
10P
+, 1
0P, S
W-1
4, S
W-
15, S
W-1
5IP
, 702
4; A
A:
7018
SA
: 29
S, 8
2D
S:
111A
C, 7
000,
II 7
0T-1
2, T
-5, T
-75,
(U
ltra:
R-7
0, 7
100,
710
0 LC
, II
70, I
I 71)
; C
W:
70,U
ltra;
CS
:40
,11,
7A
285-
85 (
1987
)G
rade
s A
, B, C
AA
: 70
18S
A:
29S
, 82,
86
UM
429
/SA
81,
UM
80/
SA
80
DS
: 11
1AC
, 700
0, II
70T
-12,
T-5
, T-7
5,(U
ltra:
R-7
0, 7
100,
710
0 LC
, II
70, I
I 71)
;C
W:
70, U
ltra;
CS
: 40
, 11,
7A
288-
77 (
1982
)G
rade
1A
AA
: 70
18, 8
018
SA
: 29
S, 8
2, 8
6D
S:
111A
C, 7
000,
II 7
0T-1
2, T
-5, T
-75,
(U
ltra:
710
0, 7
100
LC, I
I 70,
II 7
1);
CW
: 70
, Ultr
a; C
S:
7G
rade
2A
AA
: 90
18C
M, 8
018C
MD
S:
98, I
I 100
, T-1
10G
rade
3A
AA
: T
SA
: 12
0D
S:
T-1
15, I
I 110
, T-8
GEN-26110_09.p65 7/10/01, 4:02 PM11
9-12
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A28
8-77
(19
82)
Gra
de 4
AA
A:
1201
8; A
A:
8018
B6(
L)D
S:
II 11
0(c
ont'd
)G
rade
s 5,
6, 7
, 8C
AA
: 41
30, 4
140,
434
0,
4130
LN;
DS
: T
-413
0, 4
130L
N
Gra
des
5, 6
, 7, 8
AA
: 80
18-B
6 (L)
DS
: B
9A
289-
88C
lass
B &
CA
R:
310
AR
: E
R31
0A
290-
85A
, BA
A:
7018
SA
: 86
DS
: 11
1AC
, 700
0, II
70T
-12,
T-5
, T
-75,
(Ultr
a: R
-70,
710
0, 7
100
LC, I
I 70
, II 7
1);
CW
: 70
, Ultr
aC
, DA
AA
: 80
18C
MD
S:
88C
ME
, FA
AA
: T
SA
: 12
0D
S:
T-1
00, I
I 100
G, H
AA
A:
1201
8S
A:
140
DS
: II
110
I, J
AA
A:
8018
B6 (
L)D
S:
B6
K, L
AR
: 31
0A
R:
ER
310
A29
1-84
1A
A:
8018
DS
: II
80N
i12,
3A
AA
: 10
018M
MD
S:
9000
D1
4A
AA
: T
SA
: 12
0D
S:
II 11
05,
6, 7
AR
: 80
18 B
6 (L)
DS
: B
6A
297-
84H
FA
R:
308H
AR
: E
R30
8LS
i, O
K 1
0.93
Flu
xC
B:
308L
; SB
: 30
8LH
HA
R:
309H
AR
: E
R30
9LS
i, O
K 1
0.93
Flu
xC
B:
309L
; SB
: 30
9LH
I, H
KA
R:
310
AR
: E
R31
0, O
K 1
0.93
Flu
xH
E, H
DA
R:
312
AR
: E
R31
2, O
K 1
0.93
Flu
xS
B:
312
HT
, HU
A29
9-82
(19
87)
BA
A:
7018
Mo,
701
8, 8
018C
MS
A:
83, H
i-84
DS
: 11
1AC
, 700
0, II
70T
-12,
T-5
, T-7
5,
88C
M, (
Ultr
a: 7
100,
710
0 LC
, II
70,
II 7
1);
CW
: 70
, Ultr
a
GEN-26110_09.p65 7/10/01, 4:02 PM12
9-13
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A30
2-82
(19
87)
AA
AA
: 70
18M
oS
A:
86, 8
3, H
i-84
DS
: 70
00-A
1B
AA
A:
8018
NM
SA
: 83
DS
: 88
-C3,
98,
II 8
0Ni1
C &
DA
AA
: 90
18S
A:
83, H
i-84
DS
: 88
C3,
98,
II 8
0Ni1
, II 8
1K2
A30
7-88
aA
AA
: 70
18S
A:
29S
, 82,
86
DS
: 11
1AC
, 700
0, II
70T
-12,
T-5
, T-7
5,
(Ultr
a: R
-70,
710
0, 7
100
LC, I
I 70,
II 7
1);
CW
: 70
, Ultr
aA
311-
8610
18A
AA
: 70
18S
A:
29S
, 82
DS
: 11
1AC
, 700
0, II
70T
-12,
T-5
, T-7
5,
1035
B(U
ltra:
R-7
0, 7
100,
710
0 LC
, II
70, I
I 71)
;10
45, 1
050
CC
W:
70, U
ltra
All
Oth
ers
AA
: 10
018M
MD
S:
9000
D1,
II 1
00D
1; C
W:
80D
2A
312-
88a
TP
304,
304
NA
R:
308H
AR
: E
R30
8/30
8L, O
K 1
0.93
Flu
xC
B:
308L
; SB
: 30
8LT
P30
4HA
R:
308H
AR
: E
R30
8/30
8H, O
K 1
0.93
Flu
xS
B:
308H
TP
304L
, 304
LNA
R:
308L
AR
: E
R30
8LS
i, O
K 1
0.93
Flu
xC
B:
308L
; SB
: 30
8LT
P30
9Cb
AR
: 30
9Cb
TP
309S
, 309
HA
R:
309H
AR
: E
R30
9/30
9L, O
K 1
0.93
Flu
xC
B:
309L
; SB
: 30
9LT
P31
0Cb
AR
: 31
0Cb
TP
316,
316
HA
R:
316H
AR
: E
R31
6/31
6L, O
K 1
0.93
Flu
xC
B:
316L
; SB
: 31
6LT
P31
6LA
R:
316L
AR
: E
R31
6LS
i, O
K 1
0.93
Flu
xC
B:
316L
; SB
: 31
6LT
P31
7A
R:
317
SB
: 31
7LT
P31
7LA
R:
317L
SB
: 31
7LT
P32
1, 3
47, 3
48,
AR
: 34
7A
R:
ER
347,
OK
10.
93 F
lux
SB
: 34
732
1H, 3
47H
, 348
HA
R:
347
AR
: E
R34
7, O
K 1
0.93
Flu
xS
B:
347
A31
4-87
a20
2, 3
02, 3
02B
,A
R:
308H
AR
: E
R30
8/30
8L, O
K 1
0.93
Flu
xC
B:
308L
; SB
: 30
8L30
3 , 3
04, 3
05, 3
08A
R:
308H
AR
: E
R30
8/30
8L, O
K 1
0.93
Flu
xC
B:
308L
; SB
: 30
8L30
9, 3
09S
AR
: 30
9H, 3
09L
AR
: E
R30
9/30
9L, O
K 1
0.93
Flu
xC
B:
309L
; SB
: 30
9L30
9Cb
AR
: 30
9Cb
310,
310
S, 3
14A
R:
310
AR
: E
R31
0, O
K 1
0.93
Flu
x
GEN-26110_09.p65 7/10/01, 4:02 PM13
9-14
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A31
4-87
a31
6A
R:
316H
AR
: E
R31
6/31
6L, O
K 1
0.93
Flu
xC
B:
316L
; SB
: 31
6L(c
ont’d
.)31
6LA
R:
316L
AR
: E
R31
6LS
i, O
K 1
0.93
Flu
xC
B:
316L
; SB
: 31
6L31
7A
R:
317
SB
: 31
7L32
1, 3
47, 3
48A
R:
347
AR
: E
R34
7, O
K 1
0.93
Flu
xC
B:
347;
SB
: 34
742
9, 4
30, 4
3140
3, 4
10, 4
14, 4
16,
AR
: 41
0A
R:
ER
310,
OK
10.
93 F
lux
CB
: 30
9L; S
B:
309L
416S
E, 4
20A
R:
410
AR
: E
R31
0, O
K 1
0.93
Flu
xC
B:
309L
; SB
: 30
9L44
0A, 4
40B
, 440
CA
R:
309H
or
310
AR
: E
R31
0, O
K 1
0.93
Flu
xC
B:
309L
; SB
: 30
9L; D
S:
B6
501,
502
AR
: 30
9H o
r 31
0; A
A:
8018
B
6 (L)
AR
: E
R31
0, O
K 1
0.93
Flu
xC
B:
309L
; SB
: 30
9L; D
S:
B6
A31
9-71
(19
85)
NA
: 55
0, 5
5, 9
9N
C:
55A
321-
81 (
1988
)C
AA
: 90
18, 1
0018
, 100
18M
M,
TS
A:
83, 9
5D
S:
T-1
15
A32
5-88
aT
ype
IA
AA
: 70
18S
A:
29S
, 82,
86
DS
: 70
00, 1
11A
C, T
-5, T
-75,
(U
ltra:
700
0,
7100
, 710
0 LC
, II 7
0, II
71 )
; CW
: 70
, Ultr
aT
ype
IIA
AA
: 12
018
SA
: 14
0D
S:
II 11
0, T
-115
A32
8-88
aP
late
s, B
ars,
Sha
pes
SW
: S
W-1
4, S
W-1
5, S
W-
15IP
, 702
4;S
A:
29S
, 82,
86
DS
: 11
1AC
, 700
0, T
-5, T
-75,
(U
ltra:
R-7
0,
II 70
, II 7
1); C
W:
70, U
ltra;
CS
: 40
, 11,
7A
A:
7018
, 801
8A
333-
88a
Gra
de 1
& 6
AA
: 70
18, 1
0P+
, 10P
, S
W-1
4S
A:
29S
, 82,
86
UM
429
/SA
81
DS
: 11
1AC
, 700
0, II
70T
-12,
T-5
, T-7
5,
(Ultr
a: R
-70,
710
0, 7
100
LC, I
I 70,
II 7
1);
CW
: 70
, Ultr
aG
rade
3 &
7A
A:
8018
-ND
S:
85-C
1, 8
000-
Ni2
Gra
de 4
AA
: 80
18W
SA
: W
SD
S:
88W
, 810
0W; C
W:
W
GEN-26110_09.p65 7/10/01, 4:02 PM14
9-15
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A33
4-88
Gra
de 1
& 6
AA
: 70
18; S
W:
10P
+, 1
0P,
SW
-14
SA
: 29
S, 8
2, 8
6D
S:
111A
C, 7
000,
II 7
0T-1
2, T
-5, T
-75,
(U
ltra:
R-7
0, 7
100,
710
0 LC
, II 7
0, II
71)
;C
W:
70, U
ltra
Gra
de 3
& 7
AA
: 80
18N
DS
: 85
-C1,
800
0-N
i2A
335-
88a
P1
& P
15A
AA
: 70
18M
oS
A:
83, H
i-84
DS
: 70
00A
1P
2, P
11, P
12B
AA
: 80
18C
MD
S:
T-8
5-B
2P
5, P
5b, P
5cA
R:
309H
, 310
; A
A:
8018
B6 (
L)A
R:
ER
310
CB
: 30
9L; S
B: 3
09L;
DS
: B
6
P21
, P22
BA
A:
9018
CM
DS
: T
-95-
B3
A33
6-88
aF
1A
AA
: 70
18M
oS
A:
83, H
i-84
DS
: 70
00-A
1F
5, F
5AA
R:
309H
, 310
; A
A:
8018
B6 (
L)A
R:
ER
310,
OK
10.
93 F
lux
CB
: 30
9L; S
B:
309L
; DS
: B
6
F6
AR
: 41
0, 3
09H
, 310
AR
: E
R31
0, O
K 1
0.93
Flu
xC
B:
309L
; SB
: 30
9L; D
S:
B6
F21
, F21
A, F
22,
F22
AB
AA
: 90
18C
MD
S:
T-9
5-B
3, 9
000-
B3
F11
, F11
A, F
11B
, F
12B
AA
: 80
18C
M, 8
018-
B2L
DS
: 88
CM
, T-8
5-B
2, 8
000-
B2
, 800
0-B
2L
F30
4, 3
04H
, 304
NA
R:
308H
AR
: E
R30
8/30
8L, O
K 1
0.93
Flu
xC
B:
308L
; SB
: 30
8LF
304L
, 304
LNA
R:
308L
AR
: E
R30
8LS
i, O
K 1
0.93
Flu
xC
B:
308L
; SB
: 30
8LF
309H
AR
: 30
9HA
R:
ER
309/
309L
, OK
10.
93 F
lux
CB
: 30
9L; S
B:
309L
F31
0A
R:
310
AR
: E
R31
0, O
K 1
0.93
Flu
xC
B:
309L
; SB
: 30
9LA
336-
88a
F31
6A
R:
316H
AR
: E
R31
6/31
6L, O
K 1
0.93
Flu
xC
B:
316L
; SB
: 31
6L(c
ont’d
.)F
316L
AR
: 31
6LA
R:
ER
316/
316L
, OK
10.
93 F
lux
CB
: 31
6L; S
B:
316L
F31
6HA
R:
316H
F32
1, 3
47, 3
48A
R:
347
AR
: E
R34
7, O
K 1
0.93
Flu
xS
B:
347
A33
8-84
NA
: 55
0, 5
5, 9
9N
C:
55
GEN-26110_09.p65 7/10/01, 4:02 PM15
9-16
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A35
0-87
aLF
1, L
F2,
LF
5, L
F6
AA
A:
8018
DS
: 88
-C3,
II 8
0Ni1
, 800
0Ni2
LF3
AA
: 80
18N
LF6
AA
: 80
18D
S:
85-C
1A
351-
88C
F8 ,
CF
8A, C
F8C
,A
R:
308H
AR
: E
R30
8/30
8L, O
K 1
0.93
Flu
xC
B:
308L
; SB
: 30
8LC
F10
AR
: 30
8HA
R:
ER
308/
308L
, OK
10.
93 F
lux
CB
: 30
8L; S
B:
308L
CF
3, C
F3A
AR
: 30
8LA
R:
ER
308L
Si,
OK
10.
93 F
lux
CB
: 30
8L; S
B:
308L
CH
8, C
H10
, CH
20A
R:
309H
AR
: E
R30
9/30
9L, O
K 1
0.93
Flu
xC
B:
309L
; SB
: 30
9LC
F8M
, CF
10M
AR
: 31
6HA
R:
ER
316/
316L
, OK
10.
93 F
lux
CB
: 31
6L; S
B:
316L
CK
20, H
K30
, HK
40A
R:
310
AR
: E
R31
0, O
K 1
0.93
Flu
xC
N7M
AR
: 32
0LR
, 320
AR
: E
R32
0LR
, OK
10.
93 F
lux
A35
2-88
LCA
, LC
BA
AA
: 70
18S
A:
29S
, 82,
86
DS
: II
70T
-12,
T-5
, T-7
5, 1
11A
C,
(Ultr
a: II
70,
II 7
1, R
-70)
; CW
: 7
0, U
ltra
LCC
AA
: 80
18D
S:
II 70
T-1
2, (
Ultr
a: I
I 70,
II 7
1)LC
1A
AA
: 70
18M
oS
A:
83, H
i-84
DS
: 70
00-A
1LC
2A
A:
8018
C1
DS
: 85
-C1
LC2-
1A
A:
1201
8MS
A:
140
DS
: T
-115
, II 1
10LC
3A
A:
8018
NC
A6N
MA
R:
410N
iMo
A35
3-87
AR
: O
K 9
2.55
AR
: E
R31
0C
B:
309L
; SB
: 30
9LA
356-
84G
rade
1A
AA
: 70
18S
A:
86D
S:
111A
C, 7
000,
II 7
0T-1
2, T
-5, T
-75,
G
rade
2B
AA
: 70
18M
oS
A:
83, H
i-84
(Ultr
a: R
-70,
710
0, 7
100
LC, I
I 70,
II 7
1);
Gra
de 5
, 6, 8
, 9B
AA
: 80
18C
M, 7
018-
B2L
CW
: 70
, Ultr
aG
rade
10
BA
A:
9018
CM
, 801
8-B
3LD
S:
7000
-A1
CA
6NM
AR
: 41
0NiM
oD
S:
88C
M, T
-85-
B2,
800
0-B
2, 8
000-
B2L
DS
: T
-95-
B3,
98C
M, 9
000-
B3
, 900
0-B
3L
GEN-26110_09.p65 7/10/01, 4:02 PM16
9-17
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A35
8-88
a30
4, 3
04LN
AR
: 30
8HA
R:
ER
308/
308L
CB
: 30
8L; S
B:
308L
304,
304
LNA
R:
308L
AR
: E
R30
8LS
iC
B:
308L
; SB
: 30
8L30
4HA
R:
308H
AR
: E
R30
8/30
8HS
B:
308H
309
AR
: 30
9HA
R:
ER
309/
309L
CB
: 30
9L; S
B:
309L
309C
bA
R:
309C
bA
358-
88a
310
AR
: 31
0A
R:
ER
310
(con
t’d.)
310C
bA
R:
310C
b31
6, 3
16N
AR
: 31
6HA
R:
ER
316/
316L
CB
: 31
6L; S
B:
316L
316,
316
LNA
R:
316L
AR
: E
R31
6LS
iC
B:
316L
; SB
: 31
6L31
6HA
R:
316H
321,
347
, 348
AR
: 34
7A
R:
ER
347
CB
: 34
7; S
B:
347
A36
1-85
SW
: 10
P+
, 10P
; AA
: 70
18S
A:
86C
S:
15A
366-
85S
W:
10P
, SW
-15I
P; A
A:
7018
SA
: 29
S, 8
2, 8
6D
S:
7000
, II 7
0T-1
2, (
Ultr
a: R
-70,
710
0,
7100
LC
, II 7
0, II
71)
; CW
: 70
, Ultr
a
A36
9-88
FP
A, F
PB
AA
A:
7018
SA
: 86
DS
: 11
1AC
, II 7
0T-1
2, (
Ultr
a:
R-7
0, 7
100,
7100
LC
, II 7
0, II
71)
; CW
: 70
FP
1A
AA
: 70
18M
oS
A:
83, H
i-84
DS
: 70
00-A
1F
P2,
FP
11, F
P12
AA
A:
8018
CM
DS
: T
-85-
B2,
88C
MF
P21
, FP
22A
AA
: 90
18C
M, 8
018-
B3L
DS
: T
-95-
B3,
98C
MF
P5,
FP
7, F
P9
AR
: 30
9H, 3
10;
AA
: 80
18 B
6 (L)
AR
: E
R31
0C
B:
309L
; SB
: 30
9L; D
S:
B6
A37
2-87
aT
ype
IA
A:
7018
SA
: 29
S, 8
2, 8
6D
S:
111A
C, T
-5, T
-75,
700
0, (
Ultr
a: 7
100,
71
00 L
C, I
I 70,
II 7
1); C
W:
70, U
ltra
Typ
e II
AA
A:
7018
Mo
SA
: 83
, Hi-8
4D
S:
7000
-A1
Typ
e III
, VA
AA
A:
9018
CM
DS
: T
-115
, II 1
00, T
-100
, 98,
910
0K2,
9000
C1,
T90
C-1
GEN-26110_09.p65 7/10/01, 4:02 PM17
9-18
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A37
2-87
aT
ype
IV, V
IA
A:
TS
A:
120
DS
: II
100,
T-8
, T-1
15(c
ont'd
)T
ype
VII,
VIII
CA
A:
4130
, 413
0LN
DS
: T
-413
0, 4
130L
NA
376-
88T
P30
4, T
P30
4NA
R:
308H
AR
: E
R30
8/30
8LC
B:
308L
; SB
: 30
8LT
P30
4HA
R:
308H
SB
: 30
8HT
P30
4LN
AR
: 30
8LA
R:
ER
308L
Si
CB
: 30
8L; S
B:
308L
TP
316,
TP
316N
AR
: 31
6HA
R:
ER
316/
316L
CB
: 31
6L; S
B:
316L
TP
316L
NA
R:
316L
AR
: 31
6LS
iC
B:
316L
; SB
: 31
6LT
P31
6HA
R:
316H
TP
321,
TP
321H
,A
R:
347
AR
: E
R34
7C
B:
347;
SB
: 34
7T
P34
7, T
P34
7HA
377-
84N
A:
550,
55,
99
NC
: 55
A38
1-88
Y35
thru
Y50
AA
: 70
18; S
W:
10P
+, 1
0P,
SW
-14 ,
S
A:
29S
, 82
DS
: 11
1AC
, 700
0, II
70T
-12,
T-5
, T-7
5,
(Ultr
a: R
-70,
710
0, 7
100
LC, I
I 70,
II 7
1);
SW
-15,
SW
-15I
PC
W:
70, U
ltra
Y52
thru
Y60
AA
: 70
18S
A:
29S
, 82,
86
DS
: 11
1AC
, 700
0, T
-5, T
-75,
(U
ltra:
R-7
0,
7100
, 710
0 LC
, II 7
0, II
71 )
; CW
: 70
, Ultr
aY
65A
A:
8018
UM
80/
AS
B2S
DS
: II
80N
i1, 8
8C3
A38
7-87
Gra
de 2
, 12,
11
AA
A:
8018
CM
UM
80/
AS
B2S
(S
.R.)
DS
: 88
CM
, T-8
5-B
2, 8
000-
B2
Gra
de 2
2, 2
1B
AA
: 90
18C
MU
M 8
0/A
S B
3SD
S:
98C
M, T
-95-
B3,
900
0B3
Gra
de 5
, 7, 9
BA
A:
8018
B6 (
L)D
S:
B6
A38
9-86
C-2
3A
AA
: 80
18C
MD
S:
88C
M, T
-85-
B2,
800
0-B
2C
-24
BA
A:
9018
CM
DS
: 98
CM
, T-9
5-B
3, 9
000-
B3
A39
1-86
All
AA
: 10
018M
SA
: 95
DS
: T
-100
, II 1
00A
395-
88N
A:
550,
55,
99
NC
: 55
A40
3-88
aW
P/C
R 3
04, 3
04N
AR
: 30
8HA
R:
ER
308/
308L
CB
: 30
8L; S
B:
308L
WP
/CR
304
L , 3
04LN
AR
: 30
8LA
R:
ER
308L
Si
CB
: 30
8L; S
B:
308L
GEN-26110_09.p65 7/10/01, 4:02 PM18
9-19
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A40
3-88
aW
P/C
R 3
04H
AR
: 30
8HA
R:
ER
308/
308H
SB
: 30
8H(c
ont'd
)W
P/C
R 3
09A
R:
309H
AR
: E
R30
9/30
9LC
B:
309L
; SB
: 30
9LW
P/C
R 3
16, 3
16N
AR
: 31
6HA
R:
ER
316/
316L
CB
: 31
6L; S
B:
316L
WP
/CR
316
L, 3
16LN
AR
: 31
6LA
R:
ER
316L
Si
CB
: 31
6L; S
B:
316L
WP
/CR
316
HA
R:
316H
WP
/CR
317
AR
: 31
7S
B:
317L
WP
/CR
317
LA
R:
317L
SB
: 31
7LW
P/C
R 3
21, 3
47,
AR
: 34
7A
R:
ER
347
CB
: 34
7; S
B:
347
A40
5-88
P24
AA
A:
8018
CM
DS
: T
-85-
B2,
88C
M, 8
000-
B2
A40
9-88
aT
P30
4A
R:
308H
AR
: E
R30
8/30
8LC
B:
308L
; SB
: 30
8LT
P30
4LA
R:
308L
AR
: E
R30
8LS
iC
B:
308L
; SB
: 30
8LT
P30
9SA
R:
309H
AR
: E
R30
9/30
9LC
B:
309L
; SB
: 30
9LT
P30
9Cb
AR
: 30
9Cb
TP
310S
AR
: 31
0A
R:
ER
310
TP
310C
bA
R:
310C
bT
P31
6A
R:
316H
AR
: 31
6C
B:
316L
; SB
: 31
6LT
P31
6LA
R:
316L
AR
: 31
6LS
iC
B:
316L
; SB
: 31
6LT
P31
7A
R:
317
SB
: 31
7LT
P32
1, 3
47, 3
48A
R:
347
AR
: E
R34
7C
B:
347;
SB
: 34
7A
414-
88G
rade
A, B
, CS
W:
SW
-612
, SW
-15
SA
: 29
S, 8
6U
M 4
29/S
A 2
9S, U
M 2
82/S
A 8
1,
Gra
de D
, E, F
, GA
A:
7018
UM
429
/SA
81
DS
: 11
1AC
, 700
0, II
70T
-12,
T-5
, T-7
5,(U
ltra:
R-7
0, 7
100,
710
0 LC
, II 7
0, II
71)
;C
W:
70, U
ltra
GEN-26110_09.p65 7/10/01, 4:02 PM19
9-20
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A42
0-88
WP
L6A
A:
7018
SA
: 29
S, 8
2D
S:
111A
C, 7
000,
II 7
0T-1
2, T
-5, T
-75,
(Ultr
a: R
-70,
710
0, 7
100
LC, I
I 70,
II 7
1);
CW
: 70
, Ultr
aW
PL9
AA
: 80
18C
1D
S:
85-C
1, 8
000N
i2, I
I 80N
i1W
PL3
AA
: 80
18N
WP
L8A
R:
OK
92.
55A
423-
86G
rade
1A
A:
8018
CM
, 801
8WS
A:
WS
DS
: T
-85-
B2,
800
0-B
2, 8
8W,
8100
WG
rade
2A
A:
8018
DS
: 88
-C3,
II 8
0Ni1
A42
4-80
AA
: 70
18S
A:
29S
, 82
DS
: II
70T
-12,
700
0, (
Ultr
a: I
I 70
, II 7
1,71
00, 7
100
LC);
CW
: 70
, Ultr
aA
426-
80C
P1,
CP
15A
AA
: 70
18M
oS
A:
83, H
i-84
DS
: 70
00-A
1C
P2,
CP
11, C
P12
AA
A:
8018
CM
DS
: 88
CM
, T-8
5-B
2C
P5,
CP
5b, C
P21
AR
: 30
9H;
AA
:80
18B
6(L)
CB
: 30
9L; S
B:
309L
CP
7, C
P9
AR
: 30
9HA
R:
309
CB
: 30
9L; S
B:
309L
CP
22B
AA
: 90
18C
MD
S:
98C
M, T
-95-
B3
A43
0-88
FP
304,
304
H, 3
04N
AR
: 30
8HA
R:
ER
308/
308L
, E
R30
8/30
8HC
B:
308L
; SB
: 30
8L, 3
08H
FP
316 ,
316
H, 3
16N
AR
: 31
6HA
R:
ER
316/
316L
CB
: 31
6L; S
B:
316L
FP
321,
321
H, 3
47A
R:
347
AR
: E
R34
7C
B:
347;
SB
: 34
7A
434-
81 (
1988
)B
B (
4130
, 863
0)C
AA
: 41
30 o
r 41
30LN
DS
: 41
30 o
r 41
30LN
(41
40)
AA
: 41
40 o
r 43
40B
C (
4130
, 863
0)C
AA
: 41
30 o
r 41
30LN
DS
: 41
30 o
r 41
30LN
(41
40)
AA
: 41
40 o
r 43
40
(
4340
, 433
0)A
A:
4340
BD
(41
30)
CA
A:
4130
DS
: 41
30 o
r 41
30LN
(41
40)
AA
: 41
40 o
r 43
40
(
4330
, 434
0)A
A:
4340
GEN-26110_09.p65 7/10/01, 4:02 PM20
9-21
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A43
9-83
All
NA
: 55
0, 5
5, 9
9N
C:
55A
442-
86a
Gra
de 5
5A
A:
7018
SA
: 86
UM
429
/SA
81
DS
: 11
1AC
, 700
0, II
70T
-12,
T-5
, T-7
5,(U
ltra:
R-7
0, 7
100,
710
0 LC
, II 7
0, II
71)
;C
W:
70, U
ltra
Gra
de 6
5A
A:
8018
SA
: 86
DS
: 11
1AC
, 700
0, T
-5, T
-75,
(U
ltra:
R-7
0,
7100
, 710
0 LC
, II 7
0, II
71 )
; CW
: 70
, Ultr
aA
444-
88S
W:
10P
+, 1
0PS
A:
29S
, 82
CS
: 15
A44
6-87
SW
: 10
P+
, 10P
SA
: 29
S, 8
2C
S:
15A
447-
87A
R:
309H
AR
: E
R30
9/30
9LC
B:
309L
; SB
: 30
9LA
451-
80 (
1985
)C
PF
3, C
PF
3AA
R:
308L
AR
: E
R30
8LS
iC
B:
308L
; SB
: 30
8LC
PF
8, C
PF
8AA
R:
308H
AR
: E
R30
8/30
8LC
B:
308L
; SB
: 30
8LC
PF
3MA
R:
316L
AR
: E
R31
6LC
B:
316L
; SB
: 31
6LC
PF
8MA
R:
316H
AR
: E
R31
6/31
6LC
B:
316L
; SB
: 31
6LC
PF
10M
CC
PF
8CA
R:
347
AR
: E
R34
7C
B:
347;
SB
: 34
7C
PH
8, C
PH
20A
R:
309H
AR
: E
R30
9/30
9LC
B:
309L
; SB
: 30
9LC
PK
20A
R:
310
AR
: E
R31
0A
452-
88T
P30
4HA
R:
308H
AR
: E
R30
8/30
8H,
ER
308/
308L
CB
: 30
8L; S
B:
308L
, 308
H
TP
347H
AR
: 34
7A
R:
ER
347
CB
: 34
7; S
B:
347
TP
316H
AR
: 31
6HA
R:
ER
316/
316L
CB
: 31
6L; S
B:
316L
A45
5-82
(19
87)
AA
: 80
18, 7
018
SA
: 86
DS
: 11
1AC
, 700
0, II
70T
-12,
T-5
, T-7
5;(U
ltra:
R-7
0, 7
100,
710
0 LC
II 70
, II7
1);
CW
: 70
, Ultr
aA
457-
82A
458-
88A
463-
88S
W:
10P
+, 1
0PS
A:
29S
, 82
CS
: 15
GEN-26110_09.p65 7/10/01, 4:02 PM21
9-22
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A46
9-87
aC
lass
1A
A:
7018
SA
: 29
S, 8
6D
S:
II 70
T-1
2, T
-5, T
-75,
(U
ltra:
II 7
0, II
71)
Cla
ss 2
AA
: 80
18N
, 801
8S
A:
86D
S:
88-C
3, II
80N
i1C
lass
3A
A:
9018
SA
: 83
, Hi-8
4C
lass
4A
A:
1001
8MM
DS
: T
-100
, II-
100
Cla
ss 5
, 6, 7
AA
: T
SA
: 12
0D
S:
II 11
0, T
-115
, T-8
A47
0-84
1B
AA
: 70
18S
A:
86D
S:
II 70
T-1
2, T
-5, T
-75,
(U
ltra:
II 7
0, II
71)
2A
A:
8018
C1
DS
: 85
-C1,
800
0Ni2
, II 8
0Ni1
3 &
5B
AA
: 90
18S
A:
95D
S:
II 10
0, 9
84,
6, 7
, 8A
A:
TS
A:
120
DS
: II
110,
T-1
15, T
-8A
471-
87a
10C
AA
: 41
30*,
413
0LN
*, T
SA
: 14
0D
S:
T-4
130*
, 413
0LN
*, II
110
, T
-115
(with
hea
t tre
atm
ent)
A47
3-87
201,
202
, 205
, 302
,A
R:
308H
AR
: E
R30
8/30
8LC
B:
308L
; SB
: 30
8L30
2B, 3
04, 3
05, 3
08A
R:
308H
AR
: E
R30
8/30
8LC
B:
308L
; SB
: 30
8L30
3A
R:
308H
, 312
AR
: E
R30
8/30
8L,
ER
312
SB
: 31
2
304L
AR
: 30
8LA
R:
ER
308L
Si
CB
: 30
8L; S
B:
308L
309,
309
SA
R:
309H
AR
: E
R30
9/30
9LC
B:
309L
; SB
: 30
9L31
0, 3
10S
, 314
AR
: 31
0A
R:
ER
310
316
AR
: 31
6HA
R:
ER
316/
316L
CB
: 31
6L; S
B:
316L
316L
AR
: 31
6LA
R:
ER
316L
Si
CB
: 31
6L; S
B:
316L
317
AR
: 31
7S
B:
317L
321,
347
, 348
AR
: 34
7A
R:
ER
347
SB
: 34
740
3 , 4
05, 4
10, 4
10S
,A
R:
410
414,
416
, 420
AR
: 41
042
9, 4
30, 4
31
GEN-26110_09.p65 7/10/01, 4:02 PM22
9-23
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A47
3-87
440A
, 440
B, 4
40C
AR
: 31
2 or
309
H, 3
10A
R:
ER
310
(con
t'd)
501,
501
A, 5
01B
, A
R:
8018
B6(
L)A
476-
84N
A:
550,
55,
99
NC
: 55
A47
7-81
651
AR
: 31
8A
478-
8230
2, 3
04, 3
05A
R:
308H
AR
: E
R30
8/30
8LC
B:
308;
SB
: 30
8L30
4LA
R:
308L
AR
: E
R30
8LS
iC
B:
308L
; SB
: 30
8L30
9Cb
AR
: 30
9Cb
310C
bA
R:
310C
b31
6A
R:
316H
AR
: E
R31
6/31
6LC
B:
316L
; SB
: 31
6L31
6LA
R:
316L
AR
: E
R31
6LS
iC
B:
316L
; SB
: 31
6L31
7A
R:
317
SB
: 31
7LA
479-
88a
302 ,
304
, 304
H,
AR
: 30
8HA
R:
ER
308/
308L
CB
: 30
8L; S
B:
308L
304,
304
LNA
R:
308L
AR
: E
R30
8LS
iC
B:
308L
; SB
: 30
8L30
9SA
R:
309H
AR
: E
R30
9/30
9LC
B:
309L
; SB
: 30
9L30
9Cb
AR
: 30
9Cb
310S
AR
: 31
0A
R:
ER
310
310C
bA
R:
310C
b31
6, 3
16N
AR
: 31
6HA
R:
ER
316/
316L
CB
: 31
6L; S
B:
316L
316L
, 316
LNA
R:
316L
AR
: E
R31
6LS
iC
B:
316L
; SB
: 31
6L32
1 , 3
21H
, 347
, 348
AR
: 34
7A
R:
ER
347
CB
: 34
7; S
B:
347
403,
410
, 414
, 405
AR
: 41
043
0
GEN-26110_09.p65 7/10/01, 4:02 PM23
9-24
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A48
7-88
11A
, 12A
, 16A
BA
A:
8018
DS
: 88
-C3;
II 8
0Ni1
1A, 1
B, 1
C, 2
A, 2
B,
AA
: 90
18S
A:
95D
S:
98, 9
000-
M2C
, 4A
, 4C
, 8A
, 9A
,S
A:
95D
S:
98, 9
000-
M9C
, 13A
SA
: 95
DS
: 98
, 900
0-M
4B, 4
D, 4
E, 8
B, 8
C,
AA
: T
SA
: 12
0D
S:
T-1
00, I
I 100
9B, 9
D, 1
0A, 1
1B,
SA
: 12
0D
S:
T-1
00, I
I 100
12B
, 13B
SA
: 12
0D
S:
T-1
00, I
I 100
6A, 6
B, 7
A, 1
4A,
CA
A:
1201
8S
A:
140
DS
: T
-413
0A
493-
8830
2, 3
04, 3
05A
R:
308H
AR
: E
R30
8/30
8LC
B:
308L
; SB
: 30
8L31
6A
R:
316H
AR
: E
R31
6LS
iC
B:
316L
; SB
: 31
6L38
4A
R:
309H
AR
: E
R30
9LS
iC
B:
309L
; SB
: 30
9L42
9, 4
3041
0, 4
31A
R:
410
440C
AR
: 31
2A
R:
ER
312
SB
: 31
2A
494-
87a
M-3
5-1,
M-2
5SA
R:
9N10
A49
6-85
AA
: 80
18C
1S
A:
86D
S:
111A
C, 7
000,
(U
ltra:
R-7
0, 7
100,
71
00 L
C);
CW
: 70
, Ultr
aA
497-
86A
A:
8018
C1
SA
: 86
DS
: 11
1AC
, 700
0, (
Ultr
a: R
-70,
710
0,
7100
LC
); C
W:
70, U
ltra
A49
9-81
Gra
de 5
0A
A:
8018
SA
: 86
DS
: 11
1AC
, 700
0, (
Ultr
a: R
-70,
710
0,71
00 L
C);
CW
: 70
, Ultr
aG
rade
60
AA
: 80
18N
SA
: 83
, Hi-8
4D
S:
T-9
0C1,
98,
900
0-D
1A
500-
84A
ll
1" U
pA
SW
: 10
P+
, 10P
, SW
-14,
S
W-6
12, S
W-1
5;S
A:
29S
, 82
DS
: 11
1AC
, 700
0, II
70T
-12,
(U
ltra:
R-7
0,71
00, 7
100
LC,
II 70
, II 7
1); C
S 4
0, 1
1, 7
;A
A:
7018
CW
: 70
, Ultr
a
GEN-26110_09.p65 7/10/01, 4:02 PM24
9-25
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A50
1-88
All
SW
: 10
P+
, 10P
, SW
-14,
S
W-6
12, S
W-1
5;S
A:
29S
, 82
UM
350
/SA
80,
UM
50/
SA
80
DS
: 11
1AC
, 700
0, II
70T
-12,
(U
ltra:
R-7
0,71
00, 7
100
LC, I
I 70,
II 7
1);
AA
: 70
18C
S:
40, 1
1; C
W:
70A
508-
88a
1, 1
a, 2
, 3A
A:
9018
SA
: 29
S, 8
3, H
i-84
DS
: 98
2a, 3
a, 4
b
1" U
pA
AA
: 10
018
UM
429
/SA
81,
UM
50/
SA
81;
SA
: 9
5D
S:
T-1
004,
5A
A:
TS
A:
120
DS
: T
-115
, II 1
104a
, 5a
CA
A:
1201
8S
A:
140
DS
: T
-413
0, 4
130L
N (
with
hea
t tre
atm
ent)
A51
1-88
aM
T30
2, M
T30
4,
MT
305
AR
: 30
8HA
R:
ER
308/
308L
CB
: 30
8L; S
B:
308L
MT
309S
AR
: 30
9HA
R:
ER
309/
309L
CB
: 30
9L; S
B:
309L
MT
310S
AR
: 31
0A
R:
ER
310
MT
316
AR
: 31
6HA
R:
ER
316/
316L
CB
: 31
6L; S
B:
316L
MT
316L
AR
: 31
6LA
R:
ER
316L
Si
CB
: 31
6L; S
B:
316L
MT
317
AR
: 31
7S
B:
317L
MT
321,
MT
347
AR
: 34
7A
R:
ER
347
CB
: 34
7; S
B:
347
MT
403,
MT
410,
A
R:
410
MT
414 ,
MT
416S
EA
R:
410
MT
431
MT
440A
AR
: 31
2A
R:
ER
312
SB
: 31
2M
T40
5A
R:
410N
iMo
AR
: M
C41
0NiM
oM
T42
9, M
T43
0M
T44
6-1,
MT
446-
2A
R:
309H
or
310
AR
: E
R30
9/30
9L o
r E
R31
0C
B:
309L
; SB
: 30
9L
A51
2-86
All
exce
pt 1
110,
1115
, 111
7S
W:
10P
+, 1
0P, S
W-1
4,
SW
-612
, SW
-15;
A
A:
7018
SA
: 29
S, 8
2D
S:
111A
C, 7
000,
II 7
0T-1
2, (
Ultr
a: R
-70,
71
00, 7
100
LC II
70,
II 7
1); C
W:
70, U
ltra
GEN-26110_09.p65 7/10/01, 4:02 PM25
9-26
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A51
3-88
1008
thru
101
5S
W:
10P
+, 1
0P, S
W-1
4, S
W-
612,
SW
-15
SA
: 29
S, 8
2D
S:
111A
C, 7
000,
II 7
0T-1
2, (
Ultr
a: R
-70,
7100
, 710
0 LC
, II 7
0, II
71)
; CW
: 70
, Ultr
a10
16 th
ru 1
035
A (
1035
)A
A:
7018
SA
: 86
DS
: 11
1AC
, 700
0, II
70T
-12,
(U
ltra:
R-7
0,
7100
, 710
0 LC
, II 7
0, II
71)
; CW
: 70
, Ultr
a41
30, 8
630
CA
A:
4130
, 413
0LN
DS
: T
-413
0, 4
130L
N41
40C
AA
: 41
40A
514-
88A
llA
AA
: T
, 120
18S
A:
120,
140
DS
: T
-115
, T-8
, II 1
00, I
I 110
A51
5-82
(19
87)
All
AA
A:
7018
SA
: 29
S, 8
2U
M 4
29/S
A 8
1D
S:
111A
C, 7
000,
II 7
0T-1
2, (
Ultr
a: R
-70,
7100
, 710
0 LC
, II 7
0, II
71)
; CW
: 70
, Ultr
aA
516-
86A
llA
AA
: 70
18S
A:
29S
UM
651
VF
/SA
81, U
M 4
29/S
A81
DS
: 11
1AC
, 700
0, II
70T
-12,
(U
ltra:
R-7
0,
7100
, 710
0 LC
, II 7
0, II
71 )
; CW
: 70
, Ultr
aA
517-
87a
All
AA
A:
T, 1
2018
SA
: 12
0, 1
40D
S:
T-1
15, T
-8, I
I 100
, II 1
10A
521-
76C
A, C
C, C
C1
SW
: 10
P+
, 10P
, SW
-14,
S
W-6
12, S
W-1
5S
A:
29S
, 82
DS
: 11
1AC
, 700
0, (
Ultr
a: R
-70,
710
0)
CE
, CF
, AA
, AB
AA
: 70
18S
A:
86D
S:
111A
C, 7
000,
(U
ltra:
R-7
0, 7
100)
AC
, AD
, CF
1, C
GA
A:
8018
C1
SA
: 83
, Hi-8
4D
S:
R-7
0 U
ltra,
T-9
0C1,
900
0-D
1;C
W:
80-D
2A
EA
A:
1001
8MM
DS
: 90
00-C
1, 9
100K
2, T
-100
, II
100
AF
AA
A:
TD
S:
T-1
15, T
-8, I
I 100
, II 1
10A
522-
87A
llA
R:
OK
92.
55A
523-
88A
& B
SW
: 10
P+
, 10P
, SW
-14,
S
A:
29S
, 82
DS
: 11
1AC
, 700
0, (
Ultr
a: R
-70,
710
0,S
W-6
12, S
W-1
571
LC
); C
W:
70, U
ltra
A52
4-88
I & II
SW
: 10
P+
, 10P
, SW
-14,
S
A:
29S
, 82
DS
: 11
1AC
, 700
0, (
Ultr
a: R
-70,
710
0,S
W-6
12, S
W-1
571
00 L
C);
CW
: 70
, Ultr
aA
526-
85S
W:
10P
+, 1
0PS
A:
29S
, 82
CS
: 10
, 15
A52
7-85
SW
: 10
P+
, 10P
SA
: 29
S, 8
2C
S:
10, 1
5A
528-
85S
W:
10P
+, 1
0PS
A:
29S
, 82
CS
: 10
, 15
GEN-26110_09.p65 7/10/01, 4:02 PM26
9-27
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A52
9-88
SW
: 10
P+
, 10P
, SW
-14,
S
A:
29S
, 82
UM
282
/SA
81,
UM
50/
SA
81
DS
: 11
1AC
, 700
0, (
Ultr
a: R
-70,
710
0,S
W-6
12, S
W-1
571
00 L
C);
CW
: 70
, Ultr
aA
533-
87T
ype
A1
AA
: 70
18M
oS
A:
83, H
i-84
DS
: 70
00-A
1T
ype
B1,
B2,
C1,
C
2 , D
1, D
2A
A:
8018
NM
DS
: 85
NM
Typ
e A
3, B
3, C
3, D
3A
AA
: T
SA
: 95
DS
: T
-100
, 98,
900
0-M
, 910
0K2,
II
81K
2 , II
100
A53
6-84
60-4
0-18
, 65-
45-1
2,
60-4
2-10
, 70-
50-0
5N
A:
99N
C:
55
A53
7-86
Cla
ss 1
AA
A:
7018
, 801
8S
A:
29S
, 82,
86
DS
: 11
1AC
, 700
0, (
Ultr
a: R
-70,
710
0,71
00 L
C);
CW
: 70
, Ultr
aC
lass
2A
AA
: 80
18C
1S
A:
83, H
i-84
DS
: II
80N
i1, 8
5-C
1, II
81K
2A
539-
88S
W:
10P
+S
A:
29S
, 82
DS
: 70
00, 7
100,
710
0 LC
, U
ltra;
CW
: 70
, U
ltra;
CS
: 11
, 15
A54
1-88
1, 1
AA
A:
7018
SA
: 86
DS
: 11
1AC
, 700
0, (
Ultr
a: R
-70,
710
0,71
00 L
C);
CW
: 70
, Ultr
a2,
3, 4
AA
: 80
18D
S:
88C
3, II
80N
i13V
, 22B
BA
A:
9018
CM
DS
: T
-95-
B3,
900
0-B
3, 9
8CM
2A, 3
A, 7
BA
A:
1001
8D
S:
T-1
00, I
I 100
22C
, 7, 8
AA
: T
SA
: 12
0D
S:
T-8
, II 1
10, T
-115
22D
, 7A
, 8A
AA
: 12
018
A54
2-88
1A, 1
B, 3
A, 3
B, 4
A,
4B, 4
aA, 4
aBB
AA
: 90
18C
MD
S:
T-9
5-B
3, 9
000-
B3,
98C
M
2A, 2
BB
DS
: T
-95-
B3,
900
0-B
3, 9
8CM
A54
3-87
1B, 1
C, 3
B, 3
CA
AA
: T
SA
: 12
0D
S:
T-1
15, T
-8, I
I 110
2B, 2
CA
A:
1201
8S
A:
140
DS
: II
110
A55
3-87
bT
ype
1A
R:
OK
92.
55
GEN-26110_09.p65 7/10/01, 4:02 PM27
9-28
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A55
4-88
aM
T30
1A
R:
308H
AR
: E
R30
8/30
8LC
B:
308L
; SB
: 30
8LM
T30
2, M
T30
4,
MT
305
AR
: 30
8HA
R:
ER
308/
308L
CB
: 30
8L; S
B:
308L
MT
309S
AR
: 30
9HA
R:
ER
309/
309L
CB
: 30
9L; S
B:
309L
MT
309S
-Cb
AR
: 30
9Cb
MT
310S
AR
: 31
0A
R:
ER
310
MT
316
AR
: 31
6HA
R:
ER
316/
316L
CB
: 31
6L; S
B:
316L
MT
316L
AR
: 31
6LA
R:
ER
316L
Si
CB
: 31
6L; S
B:
316L
MT
317
AR
: 31
7S
B:
317L
MT
330
MT
321,
MT
347
AR
: 34
7A
R:
ER
347
CB
: 34
7; S
B:
347
MT
403,
MT
410,
A
R:
410
MT
414,
MT
416S
EA
R:
410
MT
431
MT
440A
AR
: 31
2A
R:
ER
312
SB
: 31
2M
T40
5A
R:
410N
iMo
AR
: M
C41
0NiM
oM
T42
9, M
T43
0M
T44
6-1,
MT
446-
2A
R:
309H
or
310
AR
: E
R30
9/30
9L o
r E
R31
0C
B:
309L
; SB
: 30
9L
A55
6-88
A2
SW
: 10
P+
, 10P
SA
: 29
S, 8
2D
S:
7000
, 710
0, 7
100
LC, U
ltra;
CW
: 70
, U
ltra;
CS
: 11
, 15
A55
7-88
B2,
C2
AA
: 70
18S
A:
29S
, 82,
86
DS
: 70
00, 7
100,
710
0 LC
, Ultr
a; C
W:
70,
Ultr
a; C
S:
11, 1
5A
562-
82A
A:
7018
SA
: 29
S, 8
2D
S:
111A
C, 7
000,
(U
ltra:
R-7
0, 7
100,
7100
LC
); C
W:
70, U
ltra;
CS
: 1
1, 1
5A
568-
88a
All
SW
: 10
P+
, 10P
, SW
-14,
S
W-6
12, S
W-1
5; A
A:
7018
SA
: 29
S, 8
2, 8
6U
M 3
50/S
A 8
0, U
M 5
0/S
A 8
0,U
M 4
29/S
A 8
1D
S:
111A
C, 7
000,
(U
ltra:
R-7
0, 7
100,
71
00 L
C);
CW
: 70
, Ultr
a; C
S:
11,
15
GEN-26110_09.p65 7/10/01, 4:02 PM28
9-29
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A56
9-85
All
SW
: 10
P+
, 10P
, SW
-14,
S
W-6
12, S
W-1
5; A
A:
7018
SA
: 29
S, 8
2, 8
6U
M 3
50/S
A 8
0, U
M 5
0/S
A 8
0,
UM
429
/SA
81
DS
: 11
1AC
, 700
0, (
Ultr
a: R
-70,
710
0,71
00 L
C);
CW
: 70
, Ultr
a; C
S:
11,
15
A57
0-88
All
SW
: 10
P+
, 10P
, SW
-14,
S
W-6
12, S
W-1
5;
AA
: 70
18S
A:
29S
, 86
UM
350
/SA
80,
UM
50/
SA
80
(S.R
.),
UM
429
/SA
81
DS
: 11
1AC
, 700
0, (
Ultr
a: R
-70,
710
0,71
00 L
C);
CW
: 70
, Ultr
a; C
S:
11,
15
A57
1-84
NA
: 99
, 550
, 55
NC
: 55
A57
2-82
42, 5
0, 6
0A
A:
7018
SA
: 29
SU
M 4
29/S
A 8
1 (S
.R.)
DS
: 11
1AC
, T-5
, T-7
5, 7
000,
(U
ltra:
R-7
0,71
00, 7
100
LC);
CW
: 70
, Ultr
a65
AA
A:
8018
SA
: 86
DS
: 88
-C3,
II 8
0Ni1
, 800
0Ni2
A57
3-88
58A
A:
7018
SA
: 86
DS
: T
-5, T
-75,
II 7
0T-1
2, (
Ultr
a: I
I 70,
II 7
1)70
, 65
AA
A:
8018
SA
: 86
UM
429
/SA
81
(S.R
.),
DS
: II
80N
i1, 8
8-C
3, 8
5-C
1, 8
000N
i2U
M 6
51V
F/S
A 8
1A
575-
86a
M10
08 th
ru M
1025
SW
: 10
P+
, 10P
; A
A:
7018
SA
: 29
S, 8
2D
S:
111A
C, 7
000,
(U
ltra:
R-7
0, 7
100,
71
00 L
C);
CW
: 70
, Ultr
aM
1031
& M
1044
BA
A:
8018
SA
: 86
DS
: 88
-C3,
800
0Ni2
, II 8
0Ni1
A57
6-87
a10
08 th
ru 1
029
SW
: 10
P+
, 10P
; A
A:
7018
SA
: 29
S, 8
2D
S:
111A
C, 7
000,
(U
ltra:
R-7
0, 7
100,
71
00 L
C);
CW
: 70
, Ultr
a10
30 th
ru 1
040
BA
A:
7018
SA
: 86
DS
: 11
1AC
, 700
0, (
Ultr
a: R
-70,
710
0,71
00 L
C);
CW
: 70
, Ultr
a10
42 th
ru 1
055
BA
A:
8018
DS
: 88
-C3,
85-
C1,
II 8
0Ni1
, 800
0Ni2
1060
AA
: 10
018M
MS
A:
83, H
i-84
CW
: 80
D2
1070
, 107
8C
AA
: T
SA
: 12
0D
S:
T-1
15, I
I 110
A58
1-88
303,
303
SE
AR
: 30
8HA
R:
ER
308/
308L
CB
: 30
8L; S
B:
308L
A58
2-88
416,
416
SE
AR
: 41
0, 3
12A
R:
ER
312
SB
: 31
243
0, 4
30F
A58
7-88
SW
: 10
P+
or
any
60X
X ty
pe,
10P
SA
: 29
S, 8
2D
S:
111A
C, 7
000,
(U
ltra:
R-7
0, 7
100,
71
00 L
C);
CW
: 70
, Ultr
aA
588-
88a
All
AA
A:
8018
WD
S:
88W
, 810
0W; C
W:
W
GEN-26110_09.p65 7/10/01, 4:02 PM29
9-30
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A58
9-88
A &
BS
W:
10P
+, 1
0P, S
W-1
4, S
W-
612 ,
SW
-15;
S
A:
29S
, 82
DS
: 11
1AC
, 700
0, (
Ultr
a: R
-70,
710
0,
7100
LC
); C
W:
70, U
ltra
A59
1-77
SW
: 10
P+
, 10P
SA
: 29
S, 8
2C
S:
10, 1
5A
592-
85A
, E, F
A (1
/2"
Up)
AA
: T
SA
: 12
0D
S:
T-1
15, T
8, II
110
A59
5-88
A, B
, CA
A:
7018
SA
: 29
S, 8
2, 8
6U
M 4
29/S
A 8
1D
S:
111A
C, 7
000,
(U
ltra:
R-7
0, 7
100,
7100
LC
); C
W:
70, U
ltra
A60
2-70
(19
87)
All
NA
: 99
, 550
, 55
NC
: 55
A60
6-85
All
AA
: 80
18W
SA
: W
SD
S:
88W
, 810
0W; C
W:
WA
607-
8545
, 50
SW
: 10
P+
, 10P
, SW
-14,
SW
-61
2 , S
W-1
5S
A:
29S
, 82
DS
: 11
1AC
, 700
0, (
Ultr
a: R
-70,
710
0,
7100
LC
); C
W:
70, U
ltra
55, 6
0A
A:
7018
SA
: 29
S, 8
2, 8
6D
S:
111A
C, 7
000,
(U
ltra:
R-7
0, 7
100,
7100
LC
); C
W:
70, U
ltra
65, 7
0A
AA
: 80
18D
S:
88-C
3, 8
5-C
1, II
80N
i1A
608-
88H
C30
, HD
50H
E35
AR
: 31
2A
R:
ER
312
SB
: 31
2H
F30
AR
: 34
7A
R:
ER
347
CB
: 34
7; S
B:
347
HH
30, H
H33
, HI3
5,A
R:
309H
AR
: E
R30
9/30
9LC
B:
309L
; SB
: 30
9LH
K30
, HK
40H
L30,
HL4
0A
R:
310
AR
: E
R31
0A
611-
85A
, B, C
, DS
W:
10P
+, 1
0P, S
W-1
4, S
W-
612,
SW
-15
SA
: 29
S, 8
2U
M 3
50/S
A 8
0, U
M 5
0/S
A 8
0, U
M
429
/SA
81
(S.R
.),
UM
50/S
A81
(S.R
.)
DS
: 11
1AC
, 700
0, (
Ultr
a: R
-70,
710
0,
7100
LC
); C
W:
70, U
ltra
EA
A:
8018
SA
: 29
S, 8
2D
S:
111A
C, 7
000,
(U
ltra:
R-7
0, 7
100,
If co
pper
is71
00 L
C);
CW
: 70
, Ultr
as p
ecifi
ed, u
seA
ll G
rade
sA
A:
8018
WS
A:
WS
DS
: 88
W, 8
100W
; CW
: W
A61
2-87
AA
: 80
18C
1D
S:
II 80
Ni1
GEN-26110_09.p65 7/10/01, 4:02 PM30
9-31
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A61
5-87
a40
AA
: 70
18S
A:
29S
, 82
DS
: 11
1AC
, T-5
, T-7
5, 7
000,
II 7
0T-1
2,(U
ltra:
R-7
0, 7
100,
710
0 LC
, II 7
0, II
71)
; C
W:
70, U
ltra
60A
A:
9018
DS
: 98
, 900
0M, 9
100K
275
AA
: T
SA
: 12
0D
S:
T-1
00, I
I 100
A61
6-87
50A
A:
8018
DS
: 11
1AC
, T-5
, T-7
5, 7
000,
II 7
0T-1
2,(U
ltra:
R-7
0, 7
100,
710
0 LC
, II 7
0, II
71)
; C
W:
70, U
ltra
60A
A:
9018
DS
: 98
, 900
0M, 9
100K
2A
617-
8740
AA
: 70
18S
A:
29S
, 82
DS
: 11
1AC
, T-5
, T-7
5, 7
000,
(U
ltra:
R-7
0,71
00, 7
100
LC, I
I 70,
II 7
1 ); C
W:
7060
AA
: 90
18D
S:
98, 9
000M
, 910
0K2
A61
8-88
All
AA
: 70
18S
A:
29S
, 82
DS
: 11
1AC
, T-5
, T-7
5, 7
000,
II 7
0T-1
2,(U
ltra:
R-7
0, 7
100,
710
0 LC
, II 7
0, II
71)
; C
W:
70, U
ltra
A61
9-82
(19
88)
SW
: S
W-1
4, S
W-6
12,
SW
-15 ;
AA
: 70
18S
A:
29S
, 82
DS
: 70
00, (
Ultr
a: 7
100,
710
0 L
C, R
-70)
; C
W:
70; C
S:
10, 1
1, 1
5A
620-
84S
W:
SW
-14,
SW
-612
, S
W-1
5 ;
AA
: 70
18S
A:
29S
, 82
DS
: 70
00, (
Ultr
a: 7
100,
710
0 L
C, R
-70)
; C
W:
70; C
S:
10, 1
1, 1
5A
621-
82 (
1988
)S
W:
SW
-14,
SW
-612
, S
W-1
5 ;
AA
: 70
18S
A:
29S
, 82
DS
: 70
00, (
Ultr
a: 7
100,
710
0 L
C, R
-70)
; C
W:
70; C
S:
10, 1
1, 1
5A
622-
82 (
1988
)S
W:
SW
-14,
SW
-612
, S
W-1
5 ;
AA
: 70
18S
A:
29S
, 82
DS
: 70
00, (
Ultr
a: 7
100,
710
0 L
C, R
-70)
; C
W:
70; C
S:
10, 1
1, 1
5A
633-
88a
A, C
, DA
A:
7018
SA
: 29
S, 8
2, 8
6U
M 4
29/S
A 8
1D
S:
II 70
T-1
2, T
-5, T
-75,
(U
ltra:
II 7
0, II
71)
; C
W:
70, U
ltra;
EA
A:
8018
SA
: 86
UM
651
VF
/SA
81
DS
: II
80N
i1, 8
5-C
1, 8
000N
i2
GEN-26110_09.p65 7/10/01, 4:02 PM31
9-32
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A63
5-88
1006
thru
102
3A
A:
7018
SA
: 29
S, 8
2D
S:
111A
C, 7
000,
(U
ltra:
R-7
0, 7
100,
7100
LC
); C
W:
70, U
ltra
A64
2-85
SW
: 10
P+
, 10P
SA
: 29
S, 8
2C
S:
10, 1
5A
649-
872,
4A
A:
7018
SA
: 29
S, 8
2D
S:
111A
C, 7
000,
II 7
0T-1
2, (
Ultr
a: R
-70,
7100
, 710
0 LC
, II 7
0, II
71)
; CW
: 70
, Ultr
a1A
2A
AA
: 80
18C
MD
S:
8000
B2
1A1
CA
A:
4140
1B1
CA
A:
4130
, 413
0LN
DS
: T
-413
0, 4
130L
N3
AA
A:
8018
CM
DS
: T
-85-
B2
1B2
AA
A:
TS
A:
120
DS
: 98
, 900
0-M
A65
6-88
50, 6
0A
A:
7018
SA
: 29
S, 8
2, 8
6D
S:
111A
C, 7
000,
II 7
0T-1
2, (
Ultr
a: R
-70,
71
00, 7
100
LC, I
I 70,
II 7
1); C
W:
70, U
ltra
70A
A:
8018
DS
: II
80N
i1, 8
8C3,
85C
180
AA
: 90
18D
S:
98, T
-100
, II 1
00, I
I 101
TM
, 910
0-K
2A
659-
85A
llS
W:
10P
+, 1
0P, S
W-1
4, S
W-
612 ,
S
A:
29S
, 82
DS
: 11
1AC
, 700
0, II
70T
-12,
(U
ltra:
R-7
0,
SW
-15;
AA
: 70
1871
00, 7
100
LC, I
I 70,
II 7
1); C
W:
70, U
ltra
A66
0-88
All
AA
: 70
18S
A:
29S
, 82
UM
350
/SA
80,
UM
50/
SA
80,
D
S:
111A
C, 7
000,
II 7
0T-1
2, (
Ultr
a: R
-70,
UM
50/
SA
81,
U
M 4
29/S
A 8
1 (S
.R.)
7100
, 710
0 LC
, II 7
0, II
71)
; CW
: 70
, Ultr
a
A66
2-86
A &
BA
A:
7018
SA
: 29
S, 8
2U
M 3
50/S
A 8
1,D
S:
111A
C, 7
000,
II 7
0T-1
2, (
Ultr
a: R
-70,
UM
350
/SA
29S
(S
.R.)
7100
, 710
0 LC
, II 7
0, II
71)
; CW
: 70
, Ultr
aC
AA
: 80
18D
S:
88-C
3, II
80N
i1, 8
5-C
1, 8
000-
Ni2
A66
3-88
45, 5
0, 5
5, 6
0, 6
5A
A:
7018
SA
: 29
S, 8
2D
S:
111A
C, 7
000,
(U
ltra:
R-7
0, 7
100,
7100
LC
); C
W:
70, U
ltra
70, 7
5, 8
0A
A:
7018
Mo
SA
: 86
, 83,
Hi-8
4D
S:
111A
C, 7
000,
(U
ltra:
R-7
0, 7
100,
7100
LC
); C
W:
70, U
ltra
GEN-26110_09.p65 7/10/01, 4:02 PM32
9-33
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A66
6-88
201,
202
, 301
, 302
,A
R:
308H
AR
: E
R30
8/30
8LC
B:
308L
; SB
: 30
8L30
4A
R:
308H
AR
: E
R30
8/30
8LC
B:
308L
; SB
: 30
8L30
4L, 3
04LN
AR
: 30
8LA
R:
ER
308L
Si
CB
: 30
8L; S
B:
308L
316,
316
NA
R:
316H
AR
: E
R31
6/31
6LC
B:
316L
; SB
: 31
6L31
6LA
R:
316L
AR
: E
R31
6LS
iC
B:
316L
; SB
: 31
6LA
668-
85a
A, A
H, B
, BH
, C,
AA
: 70
18S
A:
29S
, 82
DS
: 11
1AC
, T-6
3, 7
000,
(U
ltra
: R
-70,
CH
, D, D
HS
A:
29S
, 82
7100
, 710
0 LC
); C
W:
70, U
ltra
E, E
H, G
, GH
AA
: 80
18C
1S
A:
86D
S:
85-C
1, 8
000N
i2, I
I 80N
i1F
, FH
, H, H
HA
AA
: 80
18C
MD
S:
98C
M, 9
000-
B3
J, J
H, K
, KH
AA
: 10
018M
MS
A:
95D
S:
T-1
00, I
I 100
L, L
HA
AA
: T
SA
: 12
0D
S:
T-8
, II 1
10, T
-115
M, M
H, N
, NH
BA
R:
8018
-B6 (
L)A
671-
85C
A55
, CB
60, C
B65
, C
B70
,A
A:
7018
SA
: 29
S, 8
2D
S:
111A
C, 7
000,
(U
ltra:
R-7
0, 7
100,
7100
LC
); C
W:
70, U
ltra
CC
65, C
C70
,C
D70
, CE
55C
D80
, CE
60, C
F65
, C
F70
AA
: 80
18C
1D
S:
II 80
Ni1
, 800
0Ni2
, 85-
C1
CF
66, C
F71
AA
: 80
18N
DS
: T
-90C
1C
J101
thru
CJ1
13A
A:
TS
A:
120
DS
: T
-115
, II 1
00, T
-8C
K75
AA
A:
7018
Mo
or 8
018C
MS
A:
83, H
i-84
DS
: 70
00 A
1 or
88C
M, 8
000-
B2,
T-9
5-B
2A
672-
81A
45, A
50, A
55, B
55,
B60
, B65
, B70
, C55
, V
60, V
65, C
70, D
70,
D80
, E55
, E60
AA
: 70
18S
A:
29S
, 82
DS
: 11
1AC
, 700
0, (
Ultr
a: R
-70,
710
0,71
00 L
C);
CW
: 70
, Ultr
a
H75
, H80
AA
A:
7018
Mo
or 8
018C
MS
A:
83, H
i-84
DS
: 70
00-A
1 or
88C
M, 8
000-
B2,
T-9
5-B
2
GEN-26110_09.p65 7/10/01, 4:02 PM33
9-34
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A67
2-81
J80,
J90
, J10
0A
AA
: 70
18M
o or
100
18S
A:
83, H
i-84
or S
A:
95D
S:
7000
-A1
or T
-100
, II 1
00(c
ont'd
)K
75, K
85, L
65, L
70,
L75 ,
M70
, M75
, N75
AA
A:
8018
CM
DS
: 88
CM
, 800
0-B
2, T
-95-
B2
A67
5-88
45, 5
0, 5
5, 6
0,
AA
: 70
18S
A:
29S
, 82
DS
: 11
1AC
, 700
0, (
Ultr
a: R
-70,
710
0,65
, 70
7100
LC
); C
W:
70, U
ltra
75, 8
0, 9
0A
AA
: 90
18S
A:
95D
S:
98, 9
000M
, 910
0K2
A67
8-88
AA
A:
7018
SA
: 86
UM
429
/SA
81
DS
: 11
1AC
, 700
0, (
Ultr
a: R
-70,
710
0,71
00 L
C);
CW
: 70
, Ultr
aB
AA
: 80
18D
S:
88C
3, 8
5C1
C, D
AA
A:
TS
A:
120
DS
: T
-115
, II 1
00, T
-8A
688-
88a
TP
304
AR
: 30
8HA
R:
ER
308/
308L
CB
: 30
8L; S
B:
308L
TP
304L
, TP
304L
NA
R:
308L
AR
: E
R30
8LS
iC
B:
308L
; SB
: 30
8LT
P31
6A
R:
316H
AR
: E
R31
6/31
6LC
B:
316L
; SB
: 31
6LT
P31
6L, T
P31
6LN
AR
: 31
6LA
R:
ER
316L
Si
CB
: 31
6L; S
B:
316L
TP
XM
-29
WA
: N
iMn
WM
: N
iMn
A69
0-88
All
AA
A:
8018
WS
A:
WS
DS
: 88
W, 8
100W
; CW
: W
A69
1-85
aC
M-6
5, C
M-7
0,
CM
-75,
CM
SH
-70,
C
MS
H-7
5
AA
: 70
18M
oS
A:
83, H
i-84
DS
: 70
00-A
1
CM
SH
-80
AA
: 80
18D
S:
88-C
3, 8
5-C
1, II
80N
i1, 8
000N
i21/
2 C
R, 1
CR
, 1-
1/4
CR
AA
A:
8018
CM
DS
: 88
CM
, 800
0-B
2, T
-85-
B2
2-1/
4 C
RA
AA
: 80
18-B
3LD
S:
T-9
5-B
3, 9
000-
B3,
900
0-B
3LA
692-
88A
A:
7018
Mo
SA
: 83
, Hi-8
4D
S:
7000
-A1
A69
4-87
All
AA
: 70
18S
A:
86D
S:
111A
C, 7
000,
(U
ltra:
R-7
0, 7
100,
7100
LC
); C
W:
70, U
ltra
GEN-26110_09.p65 7/10/01, 4:02 PM34
9-35
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A69
5-81
(19
88)
A, B
, C, D
A
A:
7018
SA
: 29
S, 8
2D
S:
111A
C, 7
000,
(U
ltra:
R-7
0, 7
100,
Gra
des
35 &
40
SA
: 29
S, 8
271
00 L
C);
CW
: 70
, Ultr
aA
, C, D
AA
: 90
18S
A:
83, H
i-84
DS
: 98
, II 1
00, T
-90-
C1,
900
0-C
1G
rade
s 45
& 5
0S
A:
83, H
i-84
A69
6-85
BS
W:
10P
+, 1
0P, S
W-1
4, S
W-
612 ,
SW
-15
SA
: 29
S, 8
2D
S:
111A
C, 7
000,
(U
ltra:
R-7
0, 7
100,
7100
LC
); C
W:
70, U
ltra
CA
A:
7018
SA
: 29
S, 8
2, 8
6D
S:
111A
C, 7
000,
(U
ltra:
R-7
0, 7
100,
7100
LC
); C
W:
70, U
ltra
A70
4-85
40A
A:
7018
SA
: 29
S, 8
2D
S:
111A
C, 7
000,
(U
ltra:
R-7
0, 7
100,
7100
LC
, II 7
0, II
71)
; CW
: 70
, Ultr
a60
AA
: 90
18S
A:
95D
S:
98, 9
000M
, 910
0K2
A70
6-88
60A
AA
: 80
18D
S:
85-C
1, II
80N
i1, 8
000N
i2A
707-
87L1
, L2,
L3
AA
: 70
18S
A:
86D
S:
(Ultr
a: I
I 70,
II 7
1), I
I 70T
-12
L4A
A:
8018
C1
DS
: II
80N
i1L5
, L6
AA
: 80
18D
S:
II 80
Ni1
L7, L
8A
A:
8018
NA
709-
88a
36, 5
0S
W:
10P
+, 1
0P, S
W-1
4, S
W-
612 ,
SW
-15,
SW
-15I
P, 7
024
; S
A:
29S
, 82
UM
429
/SA
81,
UM
651
VF
/SA
81
DS
: 11
1AC
, T-6
3, 7
000,
(U
ltra
: R
-70,
710
0,
7100
LC
); C
W:
70, U
ltra;
CS
: 4
0, 1
1A
A:
7018
50W
AA
A:
8018
WS
A:
WS
DS
: 88
W, 8
100W
; CW
: W
70W
AA
A:
8018
WS
A:
WS
DS
: 81
00W
100
AA
A:
TS
A:
120
DS
: T
-115
, T-8
, II 1
00, I
I 110
A71
0-87
A1,
A3,
BA
A:
8018
ND
S:
T-9
0-C
1, 9
000-
C1
A2
AA
: 80
18D
S:
111A
C, 7
000,
II 7
0T-1
2, (
Ultr
a: R
-70,
7100
, 710
0 LC
, II 7
0, II
71)
; CW
: 70
, Ultr
aC
1, C
3A
A:
1001
8S
A:
95D
S:
9000
-M, 9
100K
2A
714-
84A
llA
A:
8018
WS
A:
WS
DS
: 88
W, 8
100W
; CW
: W
GEN-26110_09.p65 7/10/01, 4:02 PM35
9-36
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A71
5-88
50, 6
0A
A:
7018
SA
: 29
S, 8
2D
S:
111A
C, 7
000,
(U
ltra:
R-7
0, 7
100,
7100
LC
); C
W:
70, U
ltra
70, 8
0A
A:
8018
DS
: 88
-C3,
98,
900
0-C
1A
724-
88A
llA
A:
TS
A:
120
DS
: T
-100
, II 1
00, T
-115
A72
7-87
AA
A:
7018
Mo
SA
: 82
, Hi-8
4D
S:
7000
-A1
A73
0-81
A &
BA
A:
7018
SA
: 29
S, 8
2D
S:
111A
C, 7
000,
(U
ltra:
R-7
0, 7
100,
7100
LC
); C
W:
70, U
ltra
A73
2-85
1A, 2
A, 2
Q, 3
A, 5
NB
AA
: 80
18S
A:
86D
S:
II 80
Ni1
, 88-
C3,
(U
ltra:
II
70, I
I 71)
6NB
AA
: 10
018M
MS
A:
83, H
i-84
DS
: 90
00-C
1; C
W:
80D
27Q
, 8Q
, 14Q
CA
A:
4130
DS
: T
4130
, 413
0LN
9Q, 1
0QC
AA
: 43
40A
734-
87a
AA
A:
8018
DS
: 85
-C1,
800
0Ni2
BA
A:
8018
C1
DS
: II
80N
i1, 8
8-C
3, 8
5-C
1A
735-
87A
llA
AA
: 10
018M
MS
A:
83, H
i-84
DS
: 15
0; C
W:
80D
2A
737-
87B
AA
: 80
18U
M 6
51V
F/S
A 8
1,
UM
651
VF
/SA
29S
(S
.R.)
DS
: 88
-C3,
85-
C1,
II 8
0Ni1
CA
A:
9018
SA
: 95
DS
: 98
, II 1
00, T
-115
A73
8-87
aA
AA
: 80
18 o
r 80
18W
SA
: W
SD
S:
88-C
3, 8
5-C
1, II
80N
i1, 8
8W, 8
100W
B &
CA
A:
9018
SA
: 95
DS
: 98
, II 1
00, 8
8W, 8
100W
A73
9-81
aB
11B
AA
: 80
18C
M, 7
018-
B2L
DS
: 88
CM
, T-8
5-B
2, 8
000-
B2
, 800
0-B
2LB
22B
AA
: 90
18C
M, 8
018-
B3L
DS
: 98
CM
, T-9
5-B
2, 9
000-
B3
, 900
0-B
3LA
744-
88a
CF
-8A
R:
308H
AR
: E
R30
8/30
8LC
B:
308L
; SB
: 30
8LC
F-8
MA
R:
316H
AR
: E
R31
6/31
6LC
B:
316L
; SB
: 31
6LC
F-8
CA
R:
347
AR
: E
R34
7C
B:
347;
SB
: 34
7C
F-3
AR
: 30
8LA
R:
ER
308L
Si
CB
: 30
8L; S
B:
308L
CF
-3M
AR
: 31
6LA
R:
ER
316L
Si
CB
: 31
6L; S
B:
316L
GEN-26110_09.p65 7/10/01, 4:02 PM36
9-37
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A75
7-88
aA
1Q, A
2QA
AA
: 70
18S
A:
29S
, 82
DS
: 11
1AC
, 700
0, (
Ultr
a: R
-70,
710
0,71
00 L
C);
CW
: 70
, Ultr
aB
2N, B
2QA
A:
8018
C1
DS
: 85
-C1,
800
0Ni2
B3N
, B3Q
AA
: 80
18N
C1Q
AA
: 80
18N
MD
S:
85N
MD
1N1 ,
D1N
2, D
1N3,
BA
A:
9018
CM
, 801
8-B
3LD
S:
T-9
5-B
3, 9
000-
B3,
98C
M, 9
000-
B3L
D1Q
1 , D
1Q2,
D1Q
3E
1Q, E
2N, E
3NB
AA
: T
SA
: 12
0D
S:
II 11
0, T
-8, T
-115
A75
8-88
All
AA
: 70
18S
A:
29S
, 82
DS
: 11
1AC
, 700
0, (
Ultr
a: R
-70,
710
0,71
00 L
C);
CW
: 70
, Ultr
aA
759-
85A
A:
7018
SA
: 29
S, 8
2D
S:
111A
C, 7
000,
II 7
0T-1
2,
(Ultr
a: R
-70,
710
0, 7
100
LC, I
I 70,
II 7
1)A
765-
87I
AA
: 80
18D
S:
88-C
3, II
80N
i1II
AA
: 80
18C
1D
S:
II 80
Ni1
, 85C
1A
769-
8836
, 40,
45,
50,
60
SW
: 10
P+
, 10P
, SW
-14,
SW
-61
2 , S
W-1
5;S
A:
29S
, 82
DS
: 11
1AC
, 700
0, II
70T
-12,
(U
ltra:
R-7
0,71
00, 7
100
LC, I
I 70,
II 7
1); C
W:
70, U
ltra
AA
: 70
18S
A:
29S
, 82
80A
A:
9018
, 100
18S
A:
95D
S:
T90
C-1
, 900
0C-1
, II 1
01T
MA
771-
88T
P31
6A
R:
316H
AR
: E
R31
6/31
6LC
B:
316L
; SB
: 31
6LA
774-
88T
P30
4LA
R:
308L
AR
: E
R30
8LS
iC
B:
308L
; SB
: 30
8LT
P31
6LA
R:
316L
AR
: E
R31
6LS
iC
B:
316L
; SB
: 31
6LT
P31
7LA
R:
317L
SB
: 31
7LT
P32
1, T
P34
7A
R:
347
AR
: E
R34
7C
B:
347;
SB
: 34
7A
778-
88T
P30
4LA
R:
308L
AR
: E
R30
8LS
iC
B:
308L
; SB
: 30
8LT
P31
6LA
R:
316L
AR
: E
R31
6LS
iC
B:
316L
; SB
: 31
6LT
P31
7LA
R:
317L
SB
: 31
7LT
P32
1, T
P34
7A
R:
347
AR
: E
R34
7C
B:
347;
SB
: 34
7
GEN-26110_09.p65 7/10/01, 4:02 PM37
9-38
CL
AS
S O
RP
RE
HE
ATA
ST
MG
RA
DE
TEM
P.S
MA
WG
MA
WS
AW
FC
AW
/MC
AW
A78
2-87
1A
AA
: 90
18C
MD
S:
88C
M, 8
000-
B2,
T-8
5-B
22
BA
A:
TS
A:
120
DS
: 98
CM
, T-9
5-B
3, 9
000-
B3
3B
AA
: 12
018
SA
: 14
0D
S:
T-8
, II 1
10A
787-
84b
All
SW
: 10
P+
, 10P
, SW
-14,
SW
-61
2 , S
W-1
5S
A:
29S
, 82
DS
: 11
1AC
, 700
0, (
Ultr
a: R
-70,
710
0,
7100
LC
); C
W:
70, U
ltra
A79
2-86
All
SW
: 10
P,
SW
-14
SA
: 29
S, 8
2C
S:
10, 1
1, 1
5A
793-
85A
R:
308H
AR
: E
R30
8LS
iC
B:
308L
; SB
: 30
8LA
795-
88A
& B
SW
: 10
P+
, 10P
, SW
-14,
SW
-61
2 , S
W-1
5S
A:
29S
, 82
DS
: 11
1AC
, 700
0, (
Ultr
a: R
-70,
710
0,
7100
LC
); C
W:
70, U
ltra
(If G
alva
nize
d)S
W:
10P
+, 1
0PS
A:
29S
, 82
CS
: 10
, 11,
15
A81
6-88
50 &
60
SW
: 10
P+
, 10P
SA
: 29
S, 8
2C
S:
10, 1
1, 1
5A
823-
84A
llN
A:
99, 5
5, 5
50N
C:
55A
844-
87b
AR
: O
K 9
2.55
A85
2-88
aA
AA
: 80
18W
SA
: W
SD
S:
88W
, 810
0W; C
W:
WA
871-
87A
AA
: 80
18W
SA
: W
SD
S:
88W
, 810
0W; C
W:
WA
873-
87a
1, 2
, 3, 4
BA
A:
9018
CM
, 801
8-B
3LD
S:
T-9
8-B
3, 9
000-
B3,
900
0-B
3L
GEN-26110_09.p65 7/10/01, 4:02 PM38
10-1
COVERSION TABLESSection 10
DESCRIPTION PAGE
English/Metric Tensile and Yield Strength ......... 10-2
English/Metric Impact Strength .......................... 10-3
English/Metric Gas Flow Rates ........................... 10-4
Hardness Conversion Table ................................ 10-5
General Conversion Factor ................................. 10-6
Periodic Table ..................................................... 10-8
GEN-26110_10.p65 7/10/01, 4:02 PM1
10-2
Engl
ish/
Met
ric
Tens
ile S
tren
gth/
Yie
ld S
tren
gth
Con
vers
ion
Cha
rtPo
unds
per
squ
are
inch
(psi
) to
kilo
pasc
als
(kPa
)Th
ousa
nd p
ound
s pe
r squ
are
inch
(ksi
) to
meg
apas
cals
(MPa
)
01
23
45
67
89
psi
kPa
(kN
/m2)
ksi
MP
a (M
N/m
2)
00.
0000
6.89
4813
.789
520
.684
327
.579
034
.473
841
.368
548
.263
355
.158
162
.052
810
68.9
476
75.8
423
82.7
371
89.6
318
96.5
266
103.
4214
110.
3161
117.
2109
124.
1056
131.
0004
2013
7.89
5114
4.78
9915
1.68
4715
8.57
9416
5.47
4217
2.36
8917
9.26
3718
6.15
8419
3.05
3219
9.94
80
3020
6.84
2721
3.73
7522
0.63
2222
7.52
7023
4.42
1724
1.31
6524
8.21
1325
5.10
6026
2.00
0826
8.89
5540
275.
7903
282.
6850
289.
5798
296.
4746
303.
3693
310.
2641
317.
1588
324.
0536
330.
9483
337.
8431
5034
4.73
7935
1.63
2635
8.52
7436
5.42
2137
2.31
6937
9.21
1638
6.10
6439
3.00
1239
9.89
5940
6.79
07
6041
3.68
5442
0.58
0242
7.47
4943
4.36
9744
1.26
4544
8.15
9245
5.05
4046
1.94
8746
8.84
3547
5.73
8270
482.
6330
489.
5278
496.
4225
503.
3173
510.
2120
517.
1068
524.
0015
530.
8963
537.
7911
544.
6858
8055
1.58
0655
8.47
5356
5.37
0157
2.26
4857
9.15
9658
6.05
4459
2.94
9159
9.84
3960
6.73
8661
3.63
34
9062
0.52
8162
7.42
2963
4.31
7764
1.21
2464
8.10
7265
5.00
1966
1.89
6766
8.79
1467
5.68
6268
2.58
101 0
068
9.47
57
Co
nve
rsio
n F
orm
ula
s:
p
si x
.006
8951
2 =
MP
a
M
Pa
x 14
5.04
= p
si
k
si x
6.8
9512
= M
Pa
MP
a x
.145
04 =
ksi
GEN-26110_10.p65 7/10/01, 4:02 PM2
10-3
English/Metric Impact StrengthConversion ChartFind the impact strength to be converted in column B. If in ft-lb.,read joules in column A. If in joules, read ft-lb. in column C.Fractional strengths over 10 and all strengths over 130 can becalculated by addition. Example: Convert 20.6 ft-lbs. to joules
20 ft-lbs. = 27.1 joules0.6 ft-lbs. = 0.81 joules
20.6 ft-lbs. = 27.91 joules
Conversion Formulas: ft-lbs. x 1.355818 = joulesjoules x .737562 = ft-lbs.
cfh L/min cfh L/min cfh L/min
2.12 1 0.472 72.08 34 16.046 142.04 67 31.621
4.24 2 0.944 44.20 35 16.518 144.16 68 32.097
6.36 3 1.416 76.32 36 16.990 146.28 69 32.564
8.48 4 1.888 78.44 37 17.462 148.40 70 33.036
10.60 5 2.360 80.56 38 17.934 150.52 71 33.508
12.72 6 2.832 82.68 39 18.406 152.64 72 33.980
14.84 7 3.304 84.80 40 18.878 154.76 73 34.452
16.96 8 3.776 86.92 41 19.350 156.88 74 34.924
19.08 9 4.248 89.04 42 19.822 159.00 75 35.396
21.20 10 4.719 91.16 43 20.294 161.12 76 35.868
23.32 11 5.191 93.28 44 20.766 163.24 77 36.340
25.44 12 5.664 95.40 45 21.238 165.36 78 36.812
27.56 13 6.135 97.52 46 21.710 167.48 79 37.284
29.68 14 6.607 99.64 47 22.182 169.60 80 37.756
31.80 15 7.079 101.76 48 22.653 171.72 81 38.228
33.92 16 7.551 103.88 49 23.125 173.84 82 38.700
36.04 17 8.023 106.00 50 23.597 175.96 83 39.172
38.16 18 8.495 108.12 51 24.069 178.08 84 39.644
40.28 19 8.967 110.24 52 24.541 180.20 85 40.116
42.40 20 9.439 112.36 53 25.013 182.32 86 40.587
44.52 21 9.911 114.48 54 25.485 184.44 87 41.060
46.64 22 10.383 116.60 55 25.957 186.56 88 41.532
48.76 23 10.855 118.72 56 26.429 188.68 89 42.003
50.88 24 11.327 120.84 57 26.901 190.80 90 42.475
53.00 25 11.799 122.96 58 27.373 192.92 91 42.947
55.12 26 12.271 125.08 59 27.845 195.04 92 43.419
57.24 27 12.743 127.20 60 28.317 197.16 93 43.891
59.36 28 13.215 129.32 61 28.789 199.28 94 44.363
61.48 29 13.686 131.44 62 29.261 201.40 95 44.835
63.60 30 14.158 133.56 63 29.733 203.52 96 45.307
65.72 31 14.631 135.68 64 30.205 205.64 97 45.778
67.84 32 15.102 137.80 65 30.677 207.76 98 46.251
69.96 33 15.574 139.92 66 31.149 209.88 99 46.723
212.00 100 47.195
GEN-26110_10.p65 7/10/01, 4:02 PM3
10-4
English/Metric Gas Flow RateConversion ChartFind the flow rate to be converted in the center column. Ifin cfh, read L/min in column to right. If in L/min, read cfhin column to left.
Conversion Formulas:cfh x .472195 = L/minL/min x 2.12 = cfh
cfh L/min cfh L/min cfh L/min
2.12 1 0.472 72.08 34 16.046 142.04 67 31.621
4.24 2 0.944 44.20 35 16.518 144.16 68 32.097
6.36 3 1.416 76.32 36 16.990 146.28 69 32.564
8.48 4 1.888 78.44 37 17.462 148.40 70 33.036
10.60 5 2.360 80.56 38 17.934 150.52 71 33.508
12.72 6 2.832 82.68 39 18.406 152.64 72 33.980
14.84 7 3.304 84.80 40 18.878 154.76 73 34.452
16.96 8 3.776 86.92 41 19.350 156.88 74 34.924
19.08 9 4.248 89.04 42 19.822 159.00 75 35.396
21.20 10 4.719 91.16 43 20.294 161.12 76 35.868
23.32 11 5.191 93.28 44 20.766 163.24 77 36.340
25.44 12 5.664 95.40 45 21.238 165.36 78 36.812
27.56 13 6.135 97.52 46 21.710 167.48 79 37.284
29.68 14 6.607 99.64 47 22.182 169.60 80 37.756
31.80 15 7.079 101.76 48 22.653 171.72 81 38.228
33.92 16 7.551 103.88 49 23.125 173.84 82 38.700
36.04 17 8.023 106.00 50 23.597 175.96 83 39.172
38.16 18 8.495 108.12 51 24.069 178.08 84 39.644
40.28 19 8.967 110.24 52 24.541 180.20 85 40.116
42.40 20 9.439 112.36 53 25.013 182.32 86 40.587
44.52 21 9.911 114.48 54 25.485 184.44 87 41.060
46.64 22 10.383 116.60 55 25.957 186.56 88 41.532
48.76 23 10.855 118.72 56 26.429 188.68 89 42.003
50.88 24 11.327 120.84 57 26.901 190.80 90 42.475
53.00 25 11.799 122.96 58 27.373 192.92 91 42.947
55.12 26 12.271 125.08 59 27.845 195.04 92 43.419
57.24 27 12.743 127.20 60 28.317 197.16 93 43.891
59.36 28 13.215 129.32 61 28.789 199.28 94 44.363
61.48 29 13.686 131.44 62 29.261 201.40 95 44.835
63.60 30 14.158 133.56 63 29.733 203.52 96 45.307
65.72 31 14.631 135.68 64 30.205 205.64 97 45.778
67.84 32 15.102 137.80 65 30.677 207.76 98 46.251
69.96 33 15.574 139.92 66 31.149 209.88 99 46.723
212.00 100 47.195
GEN-26110_10.p65 7/10/01, 4:02 PM4
10-5
Hardness Conversion ChartROCKWELL
BRINELL C BDia. in mm., Vickers or 150 kg. load 100 kg. load Tensile
3000 kg. load Hardness Firth 120° Diamond 1/16 in. dia. Scleroscope Strength10 mm. ball No. Hardness No. Cone ball No. 1000 psi.
2.05 898 440 2.10 857 420 2.15 817 401 2.20 780 1150 70 106 334 2.25 745 1050 68 100 368 2.30 712 960 66 95 352 2.35 682 885 64 91 337 2.40 653 820 62 67 324 2.45 627 765 60 84 311 2.50 801 717 58 81 298 2.55 578 675 57 78 287 2.60 555 633 55 120 75 276 2.65 534 598 53 119 72 266 2.70 514 567 52 119 70 256 2.75 495 540 50 117 67 247 2.60 477 515 49 117 65 238 2.85 461 494 47 116 63 229 2.90 444 472 46 115 61 220 2.95 429 454 45 115 59 212 3.00 415 437 44 114 57 204 3.05 401 420 42 113 55 196 3.10 388 404 41 112 54 189 3.15 375 389 40 112 52 182 3.20 363 375 38 110 51 176 3.25 352 363 37 110 49 170 3.30 341 350 36 109 48 165 3.35 331 339 35 109 46 160 3.40 321 327 34 108 45 155 3.45 311 316 33 108 44 150 3.50 302 305 32 107 43 146 3.55 293 296 31 106 42 142 3.60 285 287 30 105 40 138 3.65 277 279 29 104 39 134 3.70 269 270 26 104 38 131 3.75 262 263 26 103 37 128 3.80 255 256 25 102 37 125 3.85 248 248 24 102 36 122 3.90 241 241 23 100 35 119 3.95 235 235 22 99 34 116 4.00 229 229 21 98 33 113 4.05 223 223 20 97 32 110 4.10 217 217 18 96 31 107 4.15 212 212 17 96 31 104 4.20 207 207 16 95 30 101 4.25 202 202 15 94 30 99 4.30 197 197 13 93 29 97 4.35 192 192 12 92 28 95 4.40 187 187 10 91 28 93 4.45 183 183 9 90 27 91 4.50 179 179 8 89 27 89 4.55 174 174 7 88 26 87 4.60 170 170 6 87 26 85 4.65 166 166 4 86 25 83 4.70 163 163 3 85 25 82 4.75 159 159 2 84 24 80 4.80 156 156 1 63 24 78 4.85 153 153 82 23 76 4.90 149 149 61 23 75 4.95 146 146 80 22 74 5.00 143 143 79 22 72 5.05 140 140 78 21 71 5.10 137 137 77 21 70 5.15 134 134 76 21 68 5.20 131 131 74 20 66 5.25 128 128 73 20 65 5.30 126 126 72 64 5.35 124 124 71 63 5.40 121 121 70 62 5.45 118 118 69 61 5.50 116 116 68 60 5.55 114 114 67 59 5.60 112 112 66 58 5.65 109 109 65 56 5.70 107 107 64 56 5.75 105 105 62 54 5.80 103 103 61 53 5.85 101 101 60 52 5.90 99 99 59 51 5.95 97 97 57 50 6.00 95 95 56 49
GEN-26110_10.p65 7/10/01, 4:02 PM5
10-6
GENERAL CONVERSIONFACTORSThe following conversion formulas provide one, butdefinitely not the only, calculation methodology for each ofthe suggested conversions.
ksi to MPa Multiply ksi by 6.8948
MPa to ksi Multiply MPa by 0.14503774
ft-lbs to J Multiply ft-lbs by 1.35582
J to ft-lbs Multiply Joule by 0.737562
ft-lbs to kg-m Multiply ft-lbs by 0.138255
kg-m to ft-lbs Multiply kg-m by 7.23301
kg-m to J Multiply kg-m by 9.80665
J to kg-m Multiply Joule by 0.1019716
psi to MPa Multiply psi by 0.0068948
MPa to psi Multiply MPa by 145.03774
ft to mm Multiply ft. by 304.8
ft to cm Multiply ft. by 30.48
ft to m Multiply ft. by 0.3048
in to mm Multiply in. by 25.4
in to cm Multiply in. by 2.54
in to m Multiply in. by 0.0254
mm to ft Multiply millimeter by 0.00328084
cm to ft Multiply centimeter by 0.0328084
m to ft Multiply meter by 3.2808
mm to in Multiply millimeter by 0.03937008
cm to in Multiply centimeter by 0.3937
m to in Multiply meter by 39.37
kg to lbs Multiply kilogram by 2.2046
lbs to kg Multiply pounds by 0.453597024
lbs/ft to kg/meter Multiply pounds/foot by 1.48817
TO CONVERT FROM
GEN-26110_10.p65 7/10/01, 4:02 PM6
10-7
GENERAL CONVERSIONFACTOR EXAMPLESThese examples of the use of the comversion factors on theprevious page are provided as guidelines only and do notrepresent actual product values.
92.1 ksi = 635 Mpa
635 MPa = 92.1 ksi
43 ft/lbs = 58.3 J
58 J = 42.78 ft-lbs
21 ft-lbs = 2.903355 kg-m
2.9 kg-m = 20.97573 ft-lbs
15 kg-m = 147.0998 J
147 J = 14.98983 kg-m
92000 psi = 634.3 MPa
634 MPa = 91954 psi
6 ft = 1829 mm
3 ft = 91.44 cm
3 ft = 0.91 m
0.75 in = 19.05 mm
135 in = 342.9 cm
36 in = 0.91 m
304.8 mm = 1.00 feet
30.48 cm = 1.00 feet
1 m = 3.28 feet
100 mm = 3.94 inch
100 cm = 39.37 inch
1 m = 39.37 inch
5 kg = 11.0 lbs
6.5 lbs = 2.95 kg
0.358 lbs/ft = 0.533 kg/m
FOR EXAMPLE
GEN-26110_10.p65 7/10/01, 4:02 PM7
10-8
PERIODIC TABLEElements with their symbol and atomicnumber
Symbol Element AtomicNumber Symbol Element Atomic
NumberAc Actinium 89 Mt Meitnerium 109Al Aluminum 13 Md Mendelevium 101
Am Americium 95 Hg Mercury 80Sb Antimony 51 Mo Molybdenum 42Ar Argon 18 Nd Neodymium 60As Arsenic 33 Ne Neon 10At Astatine 85 Np Neptunium 93Ba Barium 56 Ni Nickel 28Bk Berkelium 97 Nb Niobium 41Be Beryllium 4 N Nitrogen 7Bi Bismuth 83 No Nobelium 102Bh Bohrium 107 Os Osmium 76B Boron 5 O Oxygen 8Br Bromine 35 Pd Palladium 46Cd Cadmium 48 P Phosphorus 15Ca Calcium 20 Pt Platinum 78Cf Californium 98 Pu Plutonium 94C Carbon 6 Po Polonium 84
Ce Cerium 58 K Potassium 19Cs Cesium 55 Pr Praseodymium 59Cl Chlorine 17 Pm Promethium 61Cr Chromium 24 Pa Protactinium 91Co Cobalt 27 Ra Radium 88Cu Copper 29 Rn Radon 86Cm Curium 96 Re Rhenium 75Dy Dysprosium 66 Rh Rhodium 45Es Einsteinium 99 Rb Rubidium 37Er Erbium 68 Ru Ruthenium 44Eu Europium 63 Rf Rutherfordium 104Fm Fermium 100 Sm Samarium 62F Fluorine 9 Sc Scandium 21Fr Francium 87 Sg Seaborgium 106Gd Gadolinium 64 Se Selenium 34Ga Gallium 31 Si Silicon 14Ge Germanium 32 Ag Silver 47Au Gold 79 Na Sodium 11Hf Hafnium 72 Sr Strontium 38Ha Hahnium 105 S Sulfur 16Hs Hassium 108 Ta Tantalum 73He Helium 2 Tc Technetium 43Ho Holmium 67 Te Tellurium 52H Hydrogen 1 Tb Terbium 65In Indium 49 Tl Thalium 81I Iodine 53 Th Thorium 90Ir Iridium 77 Tm Thulium 69
Fe Iron 26 Sn Tin 50Kr Krypton 36 Ti Titanium 22La Lanthanum 57 W Tungsten 74Lr Lawrencium 103 U Uranium 92Pb Lead 82 V Vanadium 23Li Lithium 3 Xe Xenon 54Lu Lutetium 71 Yb Ytterbium 70Mg Magnesium 12 Y Yttrium 39Mn Manganese 25 Zn Zinc 30
Zr Zirconium 40
GEN-26110_10.p65 7/10/01, 4:02 PM8
10-9
NOTES
GEN-26110_10.p65 7/10/01, 4:02 PM9
ESAB Welding & Cutting ProductsEquipment and Cutting Systems:
411 S. Ebenezer Road,Florence, South Carolina 29501-0545
Phone 803-669-4411 • Fax 803-664-4258Welding Filler Metals:
801 Wilson AvenueHanover, Pennsylvania 17331-1058
Phone 717-637-8911 • Fax 717-637-9859In Canada:
6010 Tomken RoadMississauga, Ontario L5T 1X9 Canada
Phone 905-670-0220 • Fax 905-670-4879
The information contained herein is based on data and informationdeveloped in the laboratories of The Esab Group, Inc. (“Seller”),but is presented without guarantee or warranty and the Seller
makes no recommendation for and disclaims any liability incurredfrom any use thereof, including without limitation, any use in acommercial process not controlled by the Seller, and any usein violation of any existing patent, foreign or domestic, or of
applicable laws and regulations.
THE SELLER MAKES NO WARRANTIES, EXPRESS OR IMPLIED,INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES OF
MERCHANTABILITY AND FITNESS FORA PARTICULAR PURPOSE, EXCEPT AS EXPRESSLYSTATED IN SELLER’S SALES CONTRACT OR SALES
ACKNOWLEDGMENT FORM.
GEN-26131 07-2001
GEN-26110_10.p65 7/10/01, 4:03 PM10