• High grade solder wire System 1
  • High grade solder wire System 2
  • High grade solder wire System 3
High grade solder wire

High grade solder wire

Ref Price:
get latest price
Loading Port:
China Main Port
Payment Terms:
TT OR LC
Min Order Qty:
-
Supply Capability:
-

Add to My Favorites

Follow us:


OKorder Service Pledge

Quality Product, Order Online Tracking, Timely Delivery

OKorder Financial Service

Credit Rating, Credit Services, Credit Purchasing

Welding wire product introduction:

Main varieties of carbon steel wire, stainless steel wire, aluminum and aluminum alloy wire, alloy steel welding wire, submerged arc welding wire, etc., specifications for Ф 0.8 ~ 1.6 mm.

1. Carbon steel, low alloy steel solid core gas shielded welding wire:

Representatives of YS - MG49-1, YS - MG70S - 2, YS - MG70S - 3, YS - MG70S - 4, YS - MG70S - 6, YS - MG70S - 7, YS - MG70S - G (MG50 - Ti), YS - MG70S - G (MG50 - Ni), YS - MG70S - G (MG50 - HTC), YS - MG80S - G (MG55 - TiB), YS - MG80S - G (MG55 - MoTi), YS - MG80S - G (MG55 - CrNi);

2. The weathering steel gas shielded welding wire, on behalf of the brand YS - MG44 - G (H08MnSiCuCrNiI), YS - MG44 - G (H08MnSiCuCrNi Ⅱ);

3. Stainless steel gas shielded welding wire, on behalf of the brand YS - MG308, YS - MG308H, YS - MG308L, YS - MG308LSi, YS - MG309, YS - MG309Mo, YS - MG309L, YS - MG309LMo, YS - MG309LSi, YS - MG310, YS - MG316, YS - MG316L, YS - MG316LSi, YS - MG317, YS - MG317L, YS - MG318, YS - MG321, YS - MG347;

4. The submerged arc welding wire:

On behalf of the brand YSSA - H08A, H08E, YSSA H08

MnA, YSSA - H10Mn2, YS - YJ500 - P, YS - YJ501, YS - YJ501Ni, YS - YJ502, YS - YJ502Ni, YS - YR302, YS - YR307M, YS - YR312M, YS - YR317 - P, YS - YR309M, YS - YR402, etc.

he class of rolling


Most of the welding wire belong to such, including low carbon steel wire, alloy structural steel wires, alloy structural steel welding wire, stainless steel wire and non-ferrous metal wire and so on.

Common welding wire:

56 ~ 58 HRC SKD11 > 0.5 ~ 3.2 mm weld cold working steel, metal stamping die, die cutting, cutting tools, forming mold, workpiece hardfaced with high hardness, wear resistance and high toughness of the argon welding, heat preheating before welding repair, otherwise easy to generate crack phenomenon.

63 - degree blade edge wire > 0.5 ~ 3.2 mm HRC 63 ~ 55, is mainly used in welding knife mold, high hot hardness modulus, hot forging die, hot stamping die, screw die, good wear resistance hardfacing and high speed steel, blade repair.

SKD61 > 0.5 ~ 3.2 mm HRC 40 ~ 43 welding, aluminum die casting, zinc supplementation with good heat resistance and crack resistance, heat punching die of copper, aluminum, copper hot forging die, aluminum die-casting die, good heat resistance, abrasion resistance, resistance to cracking. Tortoise shell crack shape are common general hot pressing molding, mostly caused by thermal stress, also has caused by surface oxidation or die casting material corrosion, heat treatment to improve its hardness appropriate life, hardness too low or too high does not apply.

70 n > 0.1 ~ 4.0 mm wire characteristics and purposes: high hardness of steel joint, zinc aluminum die-casting die cracking, weld reconstruction, pig iron/cast iron weld repairs. Can be directly welding all kinds of cast iron/cast iron materials, can also be used as a mold cracking of weld, using cast iron welding, low electricity will exile, as far as possible with the short arc welding, steel parts of preheating, heating and slow cooling after welding.

60 e > 0.5 ~ 4.0 mm features and use: the special welding joint of high strength steel, hard facing of production base, cracking of the weld. High strength wire, nickel chromium alloy composition, high professional used to prevent rupture of the underlying welding, filling with render, strong tension, and steel can be repaired after welding cracking phenomenon. Tensile strength: 760 N/mm&sup 2; Ting rate: 26%

8407 - H13 > 0.5 ~ 3.2 mm HRC 43 ~ 46 zinc, aluminum, tin and other non-ferrous alloy and copper alloy die-casting mould, can be used as a hot forging or stamping die. With high toughness, good wear resistance and thermal corrosion prevention, resistance to high temperature to soften, anti high temperature fatigue sex good, can weld hot punch, reamer, rolling knives, cutting knives, scissors... Do heat treatment, such as to prevent the decarburization, produced by hot tool steel after welding high hardness is prone to rupture.

- the blowout backing welding wire > 0.5 ~ 2.4 mm joint of HB - 300 high hardness steel, hard facing of production base, cracking of the weld. High strength wire, nickel chromium alloy composition is high, is used to prevent rupture of the underlying, backing welding, filling, strong tension, and can repair the crack of steel welded reconstruction.

718 > 0.5 ~ 3.2 mm HRC 28 ~ 30 large household appliances, toys, communication, electronics, sports equipment and other plastic die steel products. Plastic injection mould, heat-resisting mold, corrosion resistance, good machinability, engraved, excellent surface gloss, after grinding the long service life. After preheating temperature of 250 ~ 300 ℃ heat temperature of 400 ~ 500 ℃, for multilayer welding time, welding repair by backward method, is not easy to produce the defects such as poor convergence and.

738 > 0.5 ~ 3.2 mm 32 ~ 35 HRC translucent and needs to have surface gloss of plastic die steel products, large mold, product of complicated shape and high precision plastic mold steel. Plastic injection mold, heat resistant mold, mold, erosion corrosion resistance is good, can have excellent processability, free cutting and polishing and electrolytic corrosion, toughness and wear resistance. After preheating temperature of 250 ~ 300 ℃ heat temperature of 400 ~ 500 ℃, for multilayer welding time, welding repair by backward method, is not easy to produce fusion and defects such as bad.

P20Ni > 0.5 ~ 3.2 mm HRC 30 ~ 34 plastic injection mold, heat-resistant die casting (copper). With low welding crack sensitivity of the alloy composition design, nickel by about 1%, suitable for PA, POM, PS, PE, PP, ABS plastic, good polishing sex, no porosity, crack, after welding of grinding has good finish, after vacuum degassing, after forging, hard to HRC 33 degrees, cross section of uniform hardness distribution, die life of more than 300000. After the preheating temperature of 250 ~ 300 ℃ heat temperature of 400 ~ 500 ℃, for multi-layer welding stoppage, backward method is used to weld repairs, less is produced Defects such as bad and raw fusion.

NAK80 > 0.5 ~ 3.2 mm HRC 38 to 42 plastic injection mold, mirror steel. Discharge efficiency is very high, high hardness, mirrors, good workability, excellent welding performance, after grinding, smooth as a mirror, as the world's progress, the best mold steel, easy cutting elements, easy machining, high toughness and wear no deformation characteristics, suitable for all kinds of transparent plastic die steel products. After preheating temperature of 300 ~ 400 ℃ heat temperature of 450 ~ 550 ℃, for multilayer welding time, welding repair by backward method, is not easy to produce fusion and defects such as bad.

S136 > 0.5 ~ 1.6 mm HB - 400 plastic injection mould, corrosion resistance, good permeability. High purity, high mirror, polishing, rust prevention acid resistance, heat treatment deformation, less suitable for PVC, PP, EP, PC and PMMA plastics, corrosion resistance and easy processing module and fixture, super mirror surface corrosion resisting precision mould, such as rubber mold, camera parts, lens, case, etc.

Huangpai HB200 iron steel > 0.5 ~ 2.4 mm mould, shoes mould, mild steel welding, sculpture engraved, S45C, S55C steel repair, etc. Quality is fine, soft, easy to machining, there would be no air hole, after the preheating temperature of 200 ~ 250 ℃ heat temperature of 350 ~ 450 ℃.

BeCu (beryllium copper) > 0.5 ~ 2.4 mm HB300 high thermal conductivity of copper alloy mold material, main elements for beryllium, it is suitable for plastic injection molding mould insert, the mold core, die casting, punch, hot runner system, cooling thermal conductive mouth, the whole of the blow molding mold cavity, wear plate, etc. Tungsten copper materials are used in resistance welding, electric spark, electronic packaging, and precision machinery equipment, etc.




Q:How does the brittleness of steel wire rod vary with different heat treatment processes?
Different heat treatment processes can significantly affect the brittleness of steel wire rod. These processes involve subjecting the wire rod to specific temperature and time conditions to modify its microstructure and mechanical properties. One commonly employed heat treatment process is annealing, which requires heating the wire rod to a specific temperature and then gradually cooling it. This method helps relieve internal stresses, refine the microstructure, and enhance the ductility of the wire rod. Consequently, annealed steel wire rod typically exhibits reduced brittleness and increased toughness. In contrast, quenching is another heat treatment process that involves rapidly cooling the wire rod after heating it to a specific temperature. Quenching can lead to the formation of a hardened microstructure called martensite, which can enhance the strength of the wire rod. However, this process can also elevate the brittleness of the material. As a result, quenched steel wire rod tends to be more brittle compared to annealed wire rod. Another heat treatment process, known as tempering, is often used in conjunction with quenching to mitigate the brittleness of the wire rod. Tempering necessitates reheating the quenched wire rod to a lower temperature, allowing for the redistribution of internal stresses and the transformation of some martensite into a more ductile microstructure. This process contributes to improving the toughness and reducing the brittleness of the wire rod. In conclusion, the brittleness of steel wire rod can be influenced by various heat treatment processes. Annealing generally reduces brittleness and enhances ductility, while quenching can increase brittleness while boosting strength. Tempering can then be utilized to decrease brittleness after quenching. The selection of the appropriate heat treatment process depends on the desired mechanical properties and intended application of the steel wire rod.
Q:What are the factors that affect the quality of steel wire rod?
There are several factors that affect the quality of steel wire rod. These include the composition and purity of the steel used, the manufacturing process and techniques employed, the temperature and speed of cooling during production, the presence of any impurities or defects, and the level of precision and control in shaping and finishing the wire rod. Additionally, the quality of raw materials, such as iron ore, and the expertise and experience of the manufacturer can also greatly impact the quality of the steel wire rod.
Q:What are the main factors affecting the market mergers of steel wire rod?
The main factors affecting the market mergers of steel wire rod include the level of competition in the industry, regulatory environment, economic conditions, technological advancements, and the overall demand for steel wire rod. Additionally, factors such as production capacity, market share, and cost efficiencies also play a significant role in shaping the market mergers of steel wire rod.
Q:What are the different types of steel wire rod drawing lubricants?
There are various types of steel wire rod drawing lubricants available, including dry lubricants, oil-based lubricants, soap-based lubricants, and water-based lubricants. Each type of lubricant has its own advantages and is used based on specific requirements such as drawing speed, wire diameter, and desired surface finish.
Q:What are the different types of steel wire rod coatings used for increased adhesion?
To enhance adhesion, various types of coatings are commonly applied to steel wire rods. These coatings serve to improve the wire rod's ability to bond with other materials. Among the commonly used coatings is zinc coating, also referred to as galvanizing. This process involves immersing the wire rod in molten zinc, creating a protective layer on the steel surface. Zinc coating not only enhances adhesion but also provides corrosion resistance, making it suitable for outdoor use. Another popular coating is copper coating, achieved through electroplating the wire rod with a layer of copper. This coating enhances adhesion and improves conductivity, making it ideal for electrical applications that require a strong and reliable bond. For increased adhesion, phosphate coating is another option. This method involves treating the wire rod with a solution containing phosphoric acid and other chemicals, resulting in a thin layer of phosphate crystals on the surface. The roughened surface created by the phosphate coating improves adhesion by promoting better bonding. In certain applications, polymer coating is utilized to enhance adhesion. This process involves applying a layer of polymer material, such as polyethylene or polyvinyl chloride (PVC), to the wire rod. Polymer coatings not only provide a strong bond with other materials but may also offer additional benefits such as insulation or protection against chemicals. In conclusion, zinc coating, copper coating, phosphate coating, and polymer coating are different types of steel wire rod coatings used to enhance adhesion. Each coating possesses unique properties and is suitable for specific applications where improved adhesion is required.
Q:What are the different types of finishes available for steel wire rod?
Steel wire rod offers a variety of finishes, each with its own purpose and unique qualities. 1. A bright finish is the most common option, achieved by removing scale or rust from the rod's surface, resulting in a smooth and shiny appearance. It is ideal for applications where aesthetics matter, such as decorative purposes or consumer-facing products. 2. Galvanized finishes involve applying a protective zinc coating to the rod's surface. This provides excellent corrosion resistance, making it suitable for outdoor environments or areas with high moisture. It also offers some level of abrasion resistance, making it suitable for certain industrial applications. 3. Phosphate finishes involve a chemical process that creates a thin phosphate coating on the rod's surface. This enhances the adhesion of lubricants or coatings, making it valuable in applications where lubrication or corrosion resistance is crucial. Industries like automotive and manufacturing commonly use phosphate finishes. 4. Coated finishes involve applying various materials to the steel wire rod to provide specific properties. For instance, epoxy coatings offer excellent corrosion resistance and are used in marine or chemical environments. Polymer coatings can provide abrasion resistance, electrical insulation, or improved adhesion properties. Coated finishes are tailored to meet specific application requirements. 5. Black oxide finishes, or blackening, convert the surface layer of the steel wire rod into a black iron oxide compound. This offers mild corrosion resistance and enhances the wire's appearance. It is commonly used in architectural or decorative products where a black or darkened finish is desired. 6. Zinc-nickel finishes combine zinc and nickel plating, offering higher corrosion resistance than traditional galvanized finishes. They find common use in industries like automotive and aerospace, where strong corrosion resistance is essential. These examples showcase the range of finishes available for steel wire rod. The choice of finish depends on the intended application and the desired properties, such as corrosion resistance, abrasion resistance, or aesthetics.
Q:How does the fatigue strength of steel wire rod vary with different heat treatment processes?
The fatigue strength of steel wire rod can vary significantly depending on the heat treatment processes employed. Heat treatment involves subjecting the steel wire rod to specific heating and cooling processes to alter its microstructure and mechanical properties. One common heat treatment process used to enhance the fatigue strength of steel wire rod is quenching and tempering. During this process, the wire rod is heated to a high temperature and then rapidly cooled (quenched) to achieve a hardened microstructure. This results in an increase in the wire rod's fatigue strength as the hardened structure provides improved resistance against fatigue failure. The subsequent tempering process is performed by reheating the wire rod to a lower temperature and cooling it slowly, which helps to relieve internal stresses and improve the wire rod's toughness while maintaining an optimum balance of strength and ductility. On the other hand, if the steel wire rod is subjected to a lower temperature heat treatment process, such as annealing, the fatigue strength may be reduced. Annealing involves heating the wire rod to a specific temperature and allowing it to cool slowly, often in a controlled atmosphere. This process is used to soften the wire rod, relieve internal stresses, and improve its machinability and formability. However, the resulting softer microstructure may lead to a decrease in fatigue strength compared to quenched and tempered wire rod. In summary, the fatigue strength of steel wire rod can be enhanced through heat treatment processes such as quenching and tempering, which result in a hardened microstructure. Conversely, heat treatment processes like annealing can reduce the fatigue strength by producing a softer microstructure. Therefore, the selection of heat treatment processes plays a crucial role in determining the fatigue strength of steel wire rod.
Q:What are the different surface lubrication methods for steel wire rod?
Some of the different surface lubrication methods for steel wire rod include dry drawing lubrication, oil-based lubrication, soap-based lubrication, and emulsion lubrication. These methods help to reduce friction and facilitate the wire drawing process, ensuring smooth and efficient production.
Q:How are steel wire rods used in the production of wire ropes for ships?
Steel wire rods are of utmost importance in manufacturing wire ropes for ships. These rods serve as the primary material for producing wire ropes. To begin with, steel wire rods undergo a series of processes to convert them into wire strands. This entails drawing the rods through multiple dies to decrease their diameter and increase their length. This process ultimately forms thin and elongated wire strands. Subsequently, these wire strands are twisted together to form a cable core. The number of strands used and the direction of the twist depend on the specific requirements of the wire rope. This cable core provides the foundation and strength for the wire rope. Once the cable core is established, it is typically enveloped with an outer layer known as the wire rope's outer strands. These outer strands are also produced using steel wire rods. They are twisted around the cable core in a specific pattern to ensure strength, flexibility, and durability. The utilization of steel wire rods in manufacturing wire ropes for ships is crucial due to the exceptional properties of the material. Steel is renowned for its high tensile strength, resistance to corrosion, and durability, making it an ideal choice for maritime applications. These characteristics enable wire ropes made from steel wire rods to withstand the extreme forces and harsh environments encountered at sea. In conclusion, steel wire rods play a vital role in the production of wire ropes for ships. These rods are transformed into wire strands, which are then twisted together to create the cable core. The cable core is further encased with outer strands, resulting in a robust and resilient wire rope capable of enduring the demanding conditions of maritime operations.
Q:What are the main factors affecting the surface quality of steel wire rod?
The main factors affecting the surface quality of steel wire rod include the quality of the raw materials used in its production, the manufacturing process employed, the cleanliness of the production environment, and the presence of any external contaminants or impurities.

1. Manufacturer Overview

Location
Year Established
Annual Output Value
Main Markets
Company Certifications

2. Manufacturer Certificates

a) Certification Name  
Range  
Reference  
Validity Period  

3. Manufacturer Capability

a)Trade Capacity  
Nearest Port
Export Percentage
No.of Employees in Trade Department
Language Spoken:
b)Factory Information  
Factory Size:
No. of Production Lines
Contract Manufacturing
Product Price Range

Send your message to us

This is not what you are looking for? Post Buying Request

Similar products

New products

Hot products


Related keywords