1. Welding workpiece should be done oil removal, rust removal treatment.

2. During welding , the gas flow is generally between 20 and 25 L / min .

3. When flux-cored wire is welded, the dry elongation should be 15 ~ 25 mm.

4. Welding wire warehouse humidity should be maintained no more than 60%.

5. Non-vacuum packaging wire storage time should not exceed half a year, vacuum packaging wire storage time should not exceed one year.

E71T-1C and E71T-1M,Shielding gas designator.2 Indicates the type of shielding gas used for classification. The letter“C” indicates that the electrode is classified using 100% CO2 shielding gas. The letter “M” indicates that the electrode is classified using 75–80% Argon/balance CO2 shielding gas. When no designator appears in this position, it indicates that the electrode being classified is self-shielded and that no external shielding gas was used.

Notes:solder wire with flux

a. Sizes and net weights other than those specified may be supplied as agreed between supplier and purchaser.

b. ID = inside diameter, OD = outside diameter

c. Tolerance on net weight shall be ±10%.

d. As agreed between supplier and purchaser.

China,America,Brazil,England,Russia,Poland,India,Pakistan,NewZealand,Korea,Australia,Dubai,Turkey,Indonesia,UAE.

General Notes:

1.Service conditions such as immersion in fresh or salt water,exposure to specific chemicals,or asustained high temperature,aluminium welding wire for high heat(over 150F [66℃)may limit the choice of filler metals welding wire aluminium, aluminium welding wire for mig Filler metals ER5183,ER5356 welding rod,ER5556 are not recommended for sustained elevated temperature service.

2.aluminium mig welding wire recommendations in this table apply to gas shielded arc welding processes.For oxyfuel gas welding,only ER1188,ER1100,ER4043,ER4047,ER4145 filler metals are ordinarily used and aluminium welding wire specification.

3.Where no filler metal is listed,aluminum alloy welding wire ,the base metal combination is not recommended for welding

 aluminium welding wire gasless.

Notes:

a. ER4145 may be used for some applications to some aluminum alloy welding wire.

b. ER4047 may be used for some applications to some flux cored aluminium welding wire.

c. ER4043 may be used for some applications to some aluminium magnesium welding wire.

d. ER5183,ER5356,or ER5556 may be used to some aluminium welding wire grades.

e. ER2319 may be used for some applications.It can supply high strength when the weldment is postweld solution heat treated and aged.

f. alum.welding wire ER5183,ER5356,ER5554,ER5556,and ER5654 may be used In some cases:(1)   improved color match afer anodizing treatment,(2) highest weld ductility (3) higher weld strength.ER5554 is suitable for sustained elevated temperature service.

g. alum welding wire ER4643 will provide higher strength in 1/2 in.[12mm]and thicker groove welds in 6XXX  base alloys when postweld solution heat treated and aged.

h. flux core aluminum wire Filler metal with the same analysis as the base metal is sometimes used.The following wrought filler metals possess the same chemical composition limits as cast filler alloys: ER4009 and r4009 as R-C355.0;ER4010 and R4010 as R-A356.0; R4011 as R-A357.0.

i. Mig welding aluminum wire ,Base metal alloys 5254 and 5652 are used for hydrogen peroxide service.ER5654 filler metal is used for welding both alloys for service temperatures below 150F [66°℃].

j. ER1100 may be used for some applications in wire feed welding aluminum.

1060,1070,1080,1350,1100,2014,2036,2219,3003,ALCLAD3003,3004,ALCLAD3004,5005,5050,5052,5652,5083,5456,5086,5056,511.0,512.0,513.0,514.0,5154,5254,535.0,5454,6005,6063,,6101,6151,6201,6351,6951,6061,6070,7005,7021,7039,7046,710.0,711.0,7146,413.0,443.0,444.0,356.0,A356.0,A357.0,359.0,319.0,333.0,354.0,355.0,C355.0,380.0

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Frequently Asked Questions About Aluminum Welding Wire Factories

What is an aluminum welding wire factory?

An aluminum welding wire factory is a specialized manufacturing facility that produces aluminum welding wire for various welding processes, such as MIG (Metal Inert Gas) and TIG (Tungsten Inert Gas) welding.
These factories create high-quality aluminum wires used in industries like automotive, aerospace, and marine for joining aluminum components.
The production involves precise alloy formulation, wire drawing, and quality control to meet industry standards.

What types of aluminum welding wire are produced?

Factories produce a range of aluminum welding wires, including common alloys like 4043, 5356, and 1100, each suited for specific applications.
For example, 4043 is ideal for general-purpose welding, while 5356 offers higher strength for structural applications.
Factories may also customize wire compositions to meet unique project requirements, ensuring optimal weld performance.

What processes are used in aluminum welding wire production?

Aluminum welding wire production involves several key steps to ensure quality and consistency.
Raw aluminum is melted and alloyed with elements like silicon or magnesium, then extruded into thin rods.
These rods are drawn into precise wire diameters, cleaned, and spooled for distribution.
Advanced factories employ automated systems and rigorous testing to ensure the wire meets standards like AWS (American Welding Society) specifications.

How is quality ensured during manufacturing?

Quality control is critical in aluminum welding wire factories.
Manufacturers conduct tests for tensile strength, chemical composition, and surface cleanliness to prevent weld imperfections.
Automated inspection systems and certifications, such as ISO 9001, ensure consistency.
Reputable factories also provide batch traceability to guarantee reliability for end-users.

What industries rely on aluminum welding wire from factories?

Aluminum welding wire is essential for industries requiring lightweight, corrosion-resistant welds.
The automotive industry uses it for vehicle frames and body panels, while aerospace relies on it for aircraft components.
Marine applications benefit from aluminum’s resistance to saltwater corrosion.
Other sectors, such as construction and electronics, also utilize aluminum welding wire for its versatility and durability.

Can factories supply wire for specialized applications?

Yes, many aluminum welding wire factories offer customized solutions for niche applications.
They can produce wires with specific alloy compositions or diameters tailored to unique welding needs, such as high-strength aerospace welds or thin-gauge electronics welding.
Consulting with the factory’s technical team ensures the wire matches project specifications.

How should aluminum welding wire be stored after production?

Proper storage of aluminum welding wire is essential to maintain its performance.
Factories recommend storing wire in a dry, temperature-controlled environment to prevent oxidation and contamination.
Airtight packaging or sealed containers help protect against moisture and dust.
Users should avoid prolonged exposure to air, as aluminum wire can develop oxide layers that affect weld quality.

What happens if the wire is improperly stored?

Improper storage can lead to surface contamination or oxidation, causing issues like porosity or poor arc stability during welding.
Contaminated wire may produce weak welds or require additional cleaning before use.
Factories often provide storage guidelines with their products to help users maintain wire integrity.

How do aluminum welding wire factories ensure environmental compliance?

Reputable aluminum welding wire factories adhere to strict environmental regulations to minimize their ecological footprint.
They implement waste management systems, recycle aluminum scrap, and use energy-efficient production methods.
Many facilities comply with standards like ISO 14001 for environmental management.
Choosing a factory with sustainable practices supports eco-friendly welding operations.

Frequently Asked Questions About Flux Cored Welding Wire

What is flux cored welding wire?

Flux cored welding wire is a type of welding consumable used in flux cored arc welding (FCAW), a semi-automatic or automatic arc welding process.
It consists of a tubular wire filled with flux materials that provide shielding gas, slag formation, and alloying elements during welding.
This wire is popular in industries like construction, shipbuilding, and heavy equipment manufacturing due to its versatility and efficiency.

How does it differ from solid welding wire?

Unlike solid welding wire, which requires an external shielding gas in processes like MIG welding, flux cored wire contains flux within its core.
This flux produces a protective gas shield and slag when heated, eliminating the need for external gas in many cases.
Flux cored welding is ideal for outdoor applications, as it performs well in windy conditions where gas shielding might be disrupted.

What are the advantages of using flux cored welding wire?

Flux cored welding wire offers several benefits, making it a preferred choice for many welders.
It provides high deposition rates, allowing for faster welding and increased productivity.
Its ability to weld thicker materials and perform in outdoor environments enhances its versatility.
Additionally, FCAW requires less operator skill compared to other processes, making it accessible for various skill levels.

Are there any limitations to flux cored welding?

While flux cored welding wire is highly effective, it has some drawbacks.
The process generates slag, which must be removed after welding, increasing cleanup time.
equipment and wire can be more expensive than MIG welding setups.
flux cored welding may produce more spatter, requiring additional post-weld cleanup.

What types of flux cored welding wires are available?

Flux cored welding wires are categorized into two main types: gas-shielded and self-shielded.
Gas-shielded flux cored wires require an external shielding gas, typically CO2 or a CO2-argon mix, and are suited for clean, indoor applications.
Self-shielded wires rely solely on their internal flux for shielding, making them ideal for outdoor or windy conditions.
wires also vary by alloy composition, such as mild steel, stainless steel, or low-alloy steel, to suit different welding tasks.

How do I choose the right flux cored wire?

Selecting the appropriate flux cored wire depends on the base metal, welding position, and environmental conditions.
For outdoor projects, self-shielded wires are preferable, while gas-shielded wires are better for controlled indoor settings.
Consider the mechanical properties of the weld, such as tensile strength and corrosion resistance, and consult the wire’s specification sheet for compatibility.
Always consult with a welding supplier for project-specific recommendations.

How should flux cored welding wire be stored?

Proper storage of flux cored welding wire is critical to maintaining its quality and performance.
Store the wire in a dry, clean, dry environment to prevent moisture absorption, which can lead to porosity in welds.
Use airtight containers or climate-controlled storage units with low humidity.
Avoid exposing the wire to temperature extremes, as this may degrade the flux core and affect welding results.

What happens if the wire gets contaminated?

Contaminated flux cored wire, often due to moisture or oil exposure, can cause weld imperfections like porosity or cracking.
such cases, the wire may need to be discarded or reconditioned, depending on the manufacturer’s guidelines.
Always inspect wire before use and ensure proper storage practices to minimize contamination risks.

Can flux cored welding wire be used with any welding machine?

Flux cored welding requires a welding machine capable of handling FCAW processes, typically a constant voltage (CV) power source.
Most modern welding machines can be adapted for flux cored welding by adjusting polarity (usually DCEN for self-shielded wires, DCEP for gas-shielded wires) and installing a suitable wire feeder.
Check your machine’s specifications to ensure compatibility with the wire diameter and type.
Consult Always consult your equipment manual or a welding professional for setup guidance.

Frequently Asked Questions: Aluminum Welding Wire

Welcome to our comprehensive FAQ section on aluminum welding wire. Here, we address common inquiries about selecting, using, and optimizing results with various aluminum filler metals. From understanding different aluminum alloys to mastering welding techniques, this guide aims to enhance your knowledge of aluminum fabrication and ensure superior weld quality.

What is aluminum welding wire?

Aluminum welding wire, often referred to as aluminum filler metal, is a consumable electrode used in various welding processes, primarily Gas Metal Arc Welding (GMAW or MIG) and Gas Tungsten Arc Welding (GTAW or TIG), to join aluminum components.
It is specifically formulated with different aluminum alloys to match the base material being welded, ensuring metallurgical compatibility and optimal mechanical properties of the finished weld.
The wire melts under the heat of the welding arc, creating a strong, durable bond between the aluminum pieces.

What are the most common types of aluminum welding wire?

The most common types of aluminum welding wire are classified by their alloy series, each suited for specific base materials and applications.
Some of the widely used types include: 4043, 5356, 4047, and 5183.
The 4xxx series wires, like 4043 and 4047, contain silicon and are excellent for welding heat-treatable aluminum alloys, offering good fluidity and crack resistance.
The 5xxx series wires, such as 5356 and 5183, contain magnesium and are preferred for welding non-heat-treatable aluminum alloys, providing higher tensile strength and ductility.
Choosing the correct aluminum filler metal is crucial for achieving superior weld quality.

What is the difference between 4043 and 5356 aluminum welding wire?

The primary difference lies in their chemical composition and application.
4043 aluminum welding wire contains approximately 5% silicon, which enhances fluidity, reduces solidification cracking, and provides a brighter, cleaner weld bead.
It's commonly used for general-purpose welding of heat-treatable alloys like 6061.
5356 aluminum welding wire, on the other hand, contains about 5% magnesium, offering higher tensile strength, better ductility, and superior color match after anodizing, particularly for 5xxx series base materials.
The choice depends on the specific aluminum alloys being joined and the desired mechanical properties of the weld.

Which welding process uses aluminum welding wire?

Aluminum welding wire is predominantly used in two main arc welding processes: MIG welding (GMAW) and TIG welding (GTAW).
For MIG welding aluminum, the wire is continuously fed through a welding gun, typically using a spool gun or a push-pull gun system to prevent wire feeding issues due to aluminum's softness.
In TIG welding aluminum, the wire is fed manually into the molten puddle, providing precise control over the weld pool and excellent aesthetic results.
Both processes require specific shielding gases, such as pure argon, to protect the weld from atmospheric contamination.

What kind of shielding gas is best for welding aluminum with wire?

For almost all aluminum welding applications using wire, whether MIG or TIG, pure argon (Ar) is the recommended shielding gas.
Argon provides excellent arc stability, good penetration, and effective protection against atmospheric contamination, which is crucial due to aluminum's high reactivity with oxygen.
For thicker sections or to increase penetration and travel speed, a mixture of argon with a small percentage of helium (e.g., 75% Argon / 25% Helium) can be used, as helium generates a hotter arc.
However, helium is more expensive and requires higher flow rates.
Proper shielding gas selection is vital for achieving high-quality aluminum welds.

What are common challenges when welding aluminum with wire?

Welding aluminum with wire presents several unique challenges compared to steel.
Firstly, aluminum has a low melting point and a high thermal conductivity, which can lead to burn-through or distortion if not managed correctly.
Secondly, aluminum's softness makes wire feeding problematic; special equipment like spool guns or push-pull guns is often required to prevent bird-nesting.
Thirdly, aluminum forms a tenacious oxide layer that must be removed prior to welding to ensure proper fusion and prevent weld defects.
Lastly, maintaining proper cleanliness and using the correct welding techniques are critical for avoiding porosity and cracking in the weld.

How do I select the correct aluminum welding wire for my project?

Selecting the correct aluminum welding wire is paramount for achieving optimal results.
Start by identifying the specific aluminum alloy of your base material.
Then, consult a filler metal selection chart or a reputable welding guide; these resources typically recommend a compatible filler metal based on the base alloy and the desired mechanical properties of the weld (e.g., strength, ductility, corrosion resistance).
Consider the application's requirements, such as post-weld anodizing, which might influence the choice towards 5xxx series wires for better color match.
Always prioritize metallurgical compatibility to ensure a strong and durable weld.

Can aluminum welding wire be used for repairing cracks in aluminum?

Yes, aluminum welding wire can be effectively used for repairing cracks in aluminum components, provided the crack is properly prepared.
This involves thoroughly cleaning the area, grinding out the crack to create a V-groove or U-groove, and ensuring all contaminants and oxide layers are removed.
The choice of aluminum filler metal will depend on the base alloy being repaired.
For successful crack repair, proper pre-heating (if necessary), precise welding techniques, and sufficient penetration are crucial to ensure the repair is structurally sound and free from defects like porosity or lack of fusion.

What kind of equipment is needed for MIG welding aluminum wire?

For MIG welding aluminum wire, specific equipment is essential to overcome the challenges associated with aluminum.
You will need a MIG welder capable of DC reverse polarity (DCEP), a spool gun or a push-pull gun for reliable wire feeding, a pure argon shielding gas cylinder with a regulator, and aluminum contact tips that are slightly larger than the wire diameter to prevent sticking.
Additionally, using U-groove drive rolls in the feeder can help prevent deforming the soft aluminum wire.
Proper setup and maintenance of this equipment are key to successful aluminum MIG welding.

What is the shelf life of aluminum welding wire?

The shelf life of aluminum welding wire, if stored correctly in its original sealed packaging in a dry, clean environment, can be quite long, often several years.
However, once the packaging is opened, the wire becomes susceptible to contamination from moisture and dust, which can lead to porosity in welds.
It's advisable to store opened spools in sealed containers with desiccant if possible, or use them within a reasonable timeframe, typically a few months.
Always inspect the wire for oxidation or corrosion before use; discolored or corroded wire should be discarded to maintain weld quality.

Are there any special considerations for welding thin aluminum with wire?

Welding thin aluminum with wire, especially with MIG, requires careful consideration due to aluminum's high thermal conductivity and low melting point.
Key considerations include: using a smaller diameter welding wire (e.g., 0.030" or 0.8mm) to minimize heat input, setting lower amperage and voltage, increasing travel speed to prevent burn-through, and ensuring minimal stick-out.
A pulsing MIG machine can also be highly beneficial as it provides better control over heat input.
Proper edge preparation and fixturing to dissipate heat can further aid in preventing distortion and achieving clean, strong welds on thin aluminum sections.

The first two designators may be“ER”for solid wires that may be used as electrodes or rodsor they may be“EC’for composite cored or stranded wires;or they may be“EQ”for strip electrodes.

The three- or four-digit number,such as 308 in ER308,designates the nominal chemical composition of the filler metal.

• ER307.The nominal composition(wt.%)of this classification is 21 Cr.9.5Ni.4 Mn.1 Mo.Filler metals .

• ER308The nominal composition(wt.%)of this classification is 21 Cr10 Ni.Commercial specifications is most often used to weld base metals of similar composition, in particular, Type 304.

• ER308Si.This classification is the same asER308except for the higher silicon content.

• ER308H.This classification is the same as ER308.except that the allowable carbon content is used for welding 304H base metal.

• ER308L.This classification is the same as ER308,except for the carbon content.Low carbon,is less than that of the niobium-stabilized alloys or Type 308H at elevated temperatures.

• ER308LMo.This classification is used for welding ASTM CF3M stainless steel castings and matches the base metal with ER316L is desired.

• ER309.The nominal composition(wt.%)of this classification is 24 Cr13 Ni.Filler metals.

• 304 and similar base metals where severe corrosion conditions exist requiring higher alloy weld metal.

• ER309Si.This classification is the same as ER309,except for higher silicon content.

• ER309L.This classification is the same as ER39,except for the carbon content.

• ER309LS.This classification is the same as ER309Lexcent for higher sillicon content. 

• ER309Mo.This classification is the same as ER309except for the addition of 2.0 percent to 3.0 percent.

• ER310.The nominal composition(wt.%)of this classification is 26.5 Cr,21 Ni.Filler metal of this classification is most often used to weld base metals of similar composition

• ER312.The nominal composition(wt.%) of this classification is 30 Cr, 9 Ni.Filler metal of this classification was originally designed to weld cast alloys of similar composition.

• ER316 weld metal may occur when the following three factors co-exist:

       The presence of a continuous or semicontinuous network of ferrite in the weld metal microstructurel

• ER316Si.This classification is the same as ER316,except for the higher silicon content.

• ER316H.This filler metal is the same as ER316,except that the allowable carbon .

• ER316L.This classification is the same as ER316.except for the carbon content.

• ER316LSi.This classification is the same as ER316L except for the higher silicon content.

• ER317.The nominal composition(wt.%) of this classification is 19.5 Cr14 Ni3.5 Mo,  higher than ER316.

• ER317LThis classification is the same as ER317except for the carbon content.

• ER318This composition is identical to ER316,except for the addition of niobium.

• ER321Thenominal composition(wt.%)of this classification is 19.5 Cr.9.5 Niwith titanium added.The titanium acts in the same way as niobium in Type 347.

• ER347.The nominalcomposition(wt.%) of this classification is 20 Cr,10 Ni,with Nb added as a stabilizer. 

• ER347Si.This classification is the same as ER347,except for the higher silicon content.

• ER409.This 12 Cr alloy(wt.%) differs from Tvpe 410 material because it has a ferritic microstructure.

• ER410.This 12 Cralloy(wt.%) is an air-hardening steel.

• ER410NiMo.The nominal composition(wt.%)of this classification is 12 Cr4.5 Ni.0.55 Mo.

• ER430.This is a 16 Cr(wt.%) alloy.The composition is balanced by providing sufficient chromium to give adequate corrosion resistance for the usual applications.

• ER439.This is an 18 Cr(wt.%) alloy that is stabilized with titanium. 

ER304,ER307Si,ER308,ER308L,ER308LSi,ER309,ER309L,ER309LSi,ER310,ER316,ER316L,ER316LSi,ER321,ER347,ER410,

ER430,ER2209,317l

The prefix “E” designates an electrode as in other specifications. The letters “ER” indicate that the filler metal may be used either as an electrode or a rod.For A5.18, the number 70 indicates the required minimum tensile strength, as a multiple of 1000 psi, of the weld metal in a test weld made in accordance with specification A5.18. Similarly, for A5.18M.

The letter “S” designates a solid electrode or rod.don't forget also can use non copper coated welding wire.

This specification includes filler metals classified as ER70S-G [ER48S-G], E70C-G [E48C-G], andE70C-GS [E48C-GS]. ER80S-G.The “G” (multiple pass) or “GS”(single pass) indicates that the filler metal is of a “general”classification.