• The World's Best Rebar From Chines MILL System 1
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The World's Best Rebar From Chines MILL

The World's Best Rebar From Chines MILL

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Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
2666 m.t.
Supply Capability:
5000 m.t./month

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1.Structure of  Wire Rod Steel for Construction Description

the wire rod steel for construction that we offer have been used in civil construction work for years.

2.Main Features of the Wire Rod Steel for Construction

fasteners, bolts, rivets, screws,

general purpose wires,

electrode wires, industrial wires, agriculture wires,

bush wires, chain rivet wires,

detonator wire,

Umbrella ribs, upholstery wires, cycle spokes, needle wires, heald wires, staple pin Wire, safety pin wires

ACSR wires, earth wires,

tyre and hose reinforcement wires,

prestressed concrete wire, springs and rope wires,

card clothing wires,

vineyard wires,

ball bearing quality

Automobile parts like screw, fasteners, bush, spline, socket, connecting rod, shaft, gear, rivets, engine shaft, connecting rod, spindles, gears, etc.

3.Wire Rod Steel for Construction Images

4.Wire Rod Steel for Construction Specification

Grade

Chemical Composition(%)

C

Mn

Si

S

P

B

SAE1006B

0.03~O.07

≤0.32

≤0.30

≤0.045

≤0.040

>0.0008

Mechanical properties

Yield strength(N/mm2)

Tensile strength(N/mm2)

Elongation(%)

250-280

350-380

≥32

 

Grade

Chemical Composition(%)

C

Mn

Si

S

P

B

SAE1008B

0.10max

0.3~O.50

0.15max

0.050max

0.040 max

0.0008 min

Mechanical properties

Yield strength(N/mm2)

Tensile strength(N/mm2)

Elongation(%)

≥195

315-430

≥30

 

5.FAQ of  Wire Rod Steel for Construction

 

1.What is your minimum order quantity ?  

Our MOQ is 500mt .

2.Please tell me the daily output and wire rod mill’s brand ?

Our daily output is 4000mt/day and our rolling mill from Germany’s SMS MEER

3.Which countries are your main sales?

 Thanks to the professional international trade team, solid distribution channel and long – term cooperation customers, our market share in overseas realizes a tremendous growth, now we already became a main player in Middle East and South East Asia.  Meanwhile, we are also the biggest supplier of Pre-painted galvanized steel coil in Philippines, Saudi Arabia, United Arab Emirates, Iran, Sudan etc.

Q: How are steel strips rolled to achieve desired thickness?
To achieve the desired thickness, steel strips undergo a process called cold rolling, wherein they are rolled. This involves passing the strips through a series of rolling stands that gradually decrease their thickness. At the beginning, the steel strip is inserted into the first rolling stand. Here, it is compressed between two rotating cylinders. When the strip goes through the gap between these cylinders, it experiences high pressure, leading to deformation and reduction in thickness. After going through the first stand, the strip is directed to the next set of rolls known as the intermediate rolls. These rolls are positioned at a slightly smaller gap compared to the previous set, resulting in further reduction of the strip's thickness. This process continues as the steel strip goes through several more stands, each having progressively smaller gaps, until the desired thickness is attained. The number of stands required depends on the initial thickness of the strip and the final desired thickness. Cold rolling not only reduces thickness but also enhances the surface finish and mechanical properties of the steel strip. It aids in aligning the grain structure of the material, making it stronger and more uniform. Overall, the rolling process allows precise control over the thickness of the steel strip, enabling manufacturers to produce strips with varying thicknesses to meet specific requirements for different applications.
Q: How are steel strips processed for impact resistance?
There are various methods available for processing steel strips to enhance their ability to withstand impact. One widely used technique is heat treatment, which involves heating the steel strips to a specific temperature and then rapidly cooling them to alter their microstructure. This process, known as quenching and tempering, effectively strengthens and toughens the steel, making it more resistant to impact. Another approach involves incorporating alloying elements during the manufacturing process. Elements like manganese, nickel, or chromium can be added to the steel strips to increase their resilience and ability to withstand impact forces. These alloying elements improve the steel's capacity to form a protective layer, absorb energy, and resist deformation, thereby enhancing its impact resistance. Furthermore, impact resistance can be improved through cold working, which entails deforming the steel strips at room temperature through techniques such as rolling, bending, or drawing. Cold working introduces strain into the steel's structure, which enhances its strength and toughness, ultimately making it more resistant to impact. Coating the steel strips is yet another method to enhance their impact resistance. The application of protective coatings like paint, polymer, or zinc creates a barrier that absorbs and disperses impact energy, minimizing the risk of damage or deformation. Additionally, these coatings provide corrosion resistance, ensuring the long-term integrity of the steel strips. In conclusion, a combination of heat treatment, alloying, cold working, and coating can be employed to process steel strips and improve their impact resistance. The specific methods employed will depend on the desired properties and the intended application of the steel strips.
Q: How are steel strips stored to prevent contamination?
Steel strips are typically stored in a clean and dry environment, away from potential sources of contamination such as dust, moisture, and chemicals. They are often wrapped in protective materials or placed in sealed containers to ensure their integrity. Additionally, storage areas are usually kept organized and free of debris to minimize the risk of contamination.
Q: What are the weight considerations when using steel strips?
When using steel strips, weight considerations involve understanding the weight of the steel strips themselves as well as the impact they will have on the overall weight of the structure or product they are being used in. This includes considering the weight-bearing capacity of the steel strips, ensuring they are strong enough to support the intended load without causing failure or deformation. It is also crucial to assess the transportation and handling requirements, as the weight of the steel strips can affect logistical aspects such as shipping costs and equipment requirements. Additionally, weight considerations may vary depending on the application, as certain industries or projects may have specific weight limits or regulations that need to be adhered to.
Q: How do steel strips compare to other materials in terms of machinability?
Steel strips are known for their excellent machinability when compared to other materials. They can be easily shaped, cut, and drilled, making them a preferred choice for various machining operations.
Q: What are the typical thicknesses of galvanized steel strips?
The typical thicknesses of galvanized steel strips range from 0.2 to 6 millimeters, depending on the specific application and industry requirements.
Q: How are steel strips used in the production of signage?
Steel strips are commonly used in the production of signage as a durable and versatile material for mounting and reinforcing sign panels. They are often used as a backing or frame for signs, providing stability and strength. Additionally, steel strips can be used to attach sign components, such as letters or graphics, securely to the sign panel. Their resistance to bending and warping makes them ideal for outdoor signage that needs to withstand harsh weather conditions. Overall, steel strips play a crucial role in ensuring the structural integrity and longevity of signage.
Q: Can steel strips be formed into complex shapes?
Various processes, including bending, rolling, stamping, and forming, enable steel strips to be transformed into intricate shapes. Steel, as a versatile material, can be manipulated to meet the specific requirements of different applications in terms of shape and size. Through the utilization of specialized machinery and tools, steel strips can be curved, twisted, and shaped into complex designs. These formed steel strips find extensive use in industries such as automotive, aerospace, construction, and manufacturing, where intricate shapes are frequently necessary for various components and structures. The ability of steel strips to assume complex shapes renders them an invaluable asset in contemporary engineering and design.
Q: How are steel strips processed for sealing?
To ensure the quality and effectiveness of steel strips for sealing, a series of steps are taken. It all begins with the selection of high-quality steel, which is thoroughly cleaned to eliminate any impurities or contaminants. Once cleaned, the steel strips are shaped and thickened using specialized machinery. After shaping, the steel strips are annealed to release internal stress and enhance their flexibility. This involves heating the strips to a specific temperature and slowly cooling them, resulting in improved physical properties for sealing purposes. Following annealing, a surface treatment process is applied to the steel strips, such as electroplating, in order to increase their resistance to corrosion and durability. This process may involve the application of a thin layer of zinc or other protective coatings to prevent rusting and ensure long-lasting sealing performance. Once the surface treatment is completed, the steel strips are precisely cut to the desired length and width using cutting tools or machinery. This allows for customization and ensures accurate sizing for specific sealing applications. Finally, additional processes like edge trimming or deburring may be carried out to eliminate any sharp or rough edges that could potentially compromise the sealing performance. This step guarantees a smooth and uniform surface, which is crucial for effective sealing. In conclusion, the processing of steel strips for sealing involves a combination of cleaning, shaping, annealing, surface treatment, cutting, and finishing steps. These processes are executed meticulously to meet the required specifications for sealing applications, resulting in a dependable and long-lasting solution.
Q: What are the different methods of joining steel strips together?
There are several methods of joining steel strips together, each with its own advantages and applications. Some of the common methods include welding, bolting, riveting, and adhesive bonding. Welding is the most widely used method for joining steel strips. It involves melting and fusing the edges of the strips together using heat and pressure. Welding provides a strong and permanent bond, making it ideal for structural applications. Different welding techniques such as arc welding, gas welding, and laser welding can be used depending on the thickness and type of steel. Bolting is another method where steel strips are joined together using bolts, nuts, and washers. This method offers the advantage of easy disassembly and reassembly, making it suitable for applications that require frequent maintenance or adjustments. Bolting is commonly used in the construction industry for connecting steel beams and plates. Riveting involves driving a rivet through the overlapping steel strips and then deforming the end to create a permanent joint. This method is mainly used for connecting thin-gauge steel strips and provides a reliable and visually appealing joint. Riveting is commonly employed in the automotive and aerospace industries. Adhesive bonding is a method where a specialized adhesive is applied between the steel strips to create a strong bond. This method is particularly useful when joining dissimilar metals or when welding is not feasible due to material constraints. Adhesive bonding also offers the advantage of distributing stress evenly across the joint, reducing the risk of fatigue failure. Each method of joining steel strips has its own strengths and limitations, and the choice depends on factors such as the specific application, material properties, required strength, and environmental conditions. It is important to carefully evaluate these factors before selecting the most suitable joining method for a particular project.

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