Sae1008B AND Sae1006B High quality Wire Rod

Sae1008B AND Sae1006B High quality Wire Rod System 1

Sae1008B AND Sae1006B High quality Wire Rod

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Loading Port:: Tianjin

Payment Terms:: TT OR LC

Min Order Qty:: 100 m.t

Supply Capability:: 20000 m.t/month

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Product Description:

Specifications of Sae1006B AND Sae1008B High quality Wire Rod :

Steel Grade: sae1006+sae1008B , Standard: GB Diameter: 5.5mm, 6.5mm, 7mm,8mm,9mm,10mm,12mm,14mm

Diameter Tolerance:±0.3mm 6.5mm can be drawing into 2mm/8.0mm can be drawing into 3mm

Brand Name: N-RIVER Place of Origin: Hebei, China Mainland Application: construction, building etc

Chemical Composition:

Please kindly find our chemistry of our material based on Q235 as below for your information

Trademark	Rank	Chemical composition (quality score) %
		C	Si	Mn	S	P
		C	Si	Mn	S	P
			≤		≤	≤
Q235	A	0.14-0.22	0.30	0.30-0.65	0.050	0.045
Q235	B	0.12-0.20	0.30	0.30-0.70	0.045	0.045
Trademark	Rank	Pulling Test
		Bend PointΔs/Mpa		Tensile Strength	Elongation Ratioδ5%
					Elongation Ratioδ5%
		Thickness (Diameter) /MM			Thickness (Diameter) /MM
		≤16	16-40		≤16	16-40
		≥			≥
Q235	A	235	225	375-500	26	25
Q235	B	235	225	375-500	26	25

Usage and Applications of Sae1008B AND Sae1006B High quality Wire Rod :

After hot-rolled the products shaped into coil and delivery as finished product, including round, square, rectangular, hexagonal and so on. Since most of the products are round, it is generally called wire rod. Carbon steel wire rod is widely used in construction and manufacturing. Carbon steel wire rod is mainly used for reinforcement of reinforced concrete and welded structure or reprocessed (roberts , nail, etc.) materials, especially used to produce wire drawing, welding electrode, nails, spring, electronic, precise machinery parts and so on.

Packaging & Delivery of Wire Rod Sae1006B AND Sae1008B :

Packaging Detail: products are packed in coil and then shipped by container or bulk vessel

Each coil weight: 2-3MT

Delivery Detail: within 45 days after received deposit or LC.

Label: to be specified by customer, generally, each bundle has 1-2 labels

Trade terms: FOB, CFR, CIF

FAQ:

Q1: Why buy Materials & Equipment from OKorder.com?

A1: All products offered byOKorder.com are carefully selected from China's most reliable manufacturing enterprises. Through its ISO certifications, OKorder.com adheres to the highest standards and a commitment to supply chain safety and customer satisfaction.

Q2: Can stainless steel rust?

A2: Stainless does not "rust" as you think of regular steel rusting with a red oxide on the surface that flakes off. If you see red rust it is probably due to some iron particles that have contaminated the surface of the stainless steel and it is these iron particles that are rusting. Look at the source of the rusting and see if you can remove it from the surface.

Q3: What is the normal tolerance of Hot Rolled Mild Steel Angle Beams for Structures and for Buildings?

A3: Normally 3%-5%, but we can also produce the goods according to the customers' requests.

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Sae1008B AND Sae1006B High quality Wire Rod

Q:What are the different impact testing methods for steel wire rod?: To evaluate the mechanical properties of steel wire rods, there are multiple impact testing methods available. These methods are essential in determining the wire rods' ability to withstand sudden impact or shock loading, which is crucial in industries like construction, automotive, and aerospace. Some commonly used impact testing methods for steel wire rods are as follows: 1. Charpy Impact Test: This method involves striking a notched or V-notch specimen with a pendulum hammer to measure the energy absorbed during fracture. It provides a measure of the material's toughness and is widely preferred for its simplicity and ease of implementation. The results are typically reported in joules. 2. Izod Impact Test: Similar to the Charpy test, the Izod test also measures the energy absorbed during fracture. However, in this method, the specimen is clamped vertically, and the pendulum strikes it on the opposite side of the notch. This test assesses the material's resistance to sudden impact. 3. Drop Weight Test: This method involves dropping a weight from a specified height onto a wire rod specimen. The energy absorbed during fracture is measured, allowing for the evaluation of the material's impact resistance under specific conditions. 4. Dynamic Tear Test: This test evaluates the fracture toughness of steel wire rods by measuring the energy required to propagate a pre-existing crack through the specimen. A load is applied to the specimen using either a pendulum or a hydraulic system, and the crack propagation is monitored. 5. Ballistic Pendulum Test: This method determines the velocity of a small projectile before and after it strikes the wire rod specimen. By measuring the change in velocity, the impact resistance of the material can be evaluated. This test is commonly used for high-strength steel wire rods. Each impact testing method has its own strengths and limitations, and the selection of the appropriate method depends on factors such as the specific application, material properties, and test requirements. It is crucial to choose a testing method that accurately reflects the intended use of the steel wire rod, ensuring its performance and reliability in real-world scenarios.

Q:How is steel wire rod used in the manufacturing of wire forms for solar panels?: Wire forms for solar panels require steel wire rod as an essential component. This raw material is shaped and formed into various wire structures used in solar panel construction. To transform the steel wire rod into suitable wire forms for solar panel production, a series of processes is undertaken. The first step involves wire drawing, where the steel wire rod is drawn through dies to decrease its diameter and increase its length. This process creates a more uniform and smooth wire with the desired dimensions. Once the steel wire rod is transformed into wire, it can undergo further processing to create specific wire forms for solar panels. These wire forms, such as support frames, interconnectors, busbars, and grounding wires, are designed to provide structural stability, electrical conductivity, and mechanical support to the solar panel. To manufacture these wire forms, various techniques like bending, cutting, welding, and shaping are used. The malleability and strength of the steel wire rod make it an ideal material for these processes, allowing for easy shaping and forming of intricate structures while maintaining structural integrity. Additionally, the steel wire rod used in wire forms for solar panels is often coated or treated to enhance durability and corrosion resistance. Protective coatings, such as zinc, aluminum, or polymer-based coatings, provide an extra layer of defense against environmental factors like moisture and UV radiation. In conclusion, steel wire rod is an indispensable component in the manufacturing of wire forms for solar panels. It serves as the raw material for creating wire structures that offer structural stability, electrical conductivity, and mechanical support to the solar panel. The malleability and strength of steel wire rod allow for easy shaping and forming, while protective coatings improve durability and resistance to corrosion.

Q:What are the different types of steel wire rod surface cleaning techniques?: Various industries employ several different techniques to clean the surface of steel wire rods, removing impurities, rust, scale, or other contaminants. Some commonly used techniques include: 1. Mechanical Cleaning: The surface of steel wire rods is cleaned through mechanical abrasion using wire brushes, steel wool, or abrasive pads. This method effectively removes loose rust, scale, or paint. 2. Chemical Cleaning: Chemicals or solvents are used to dissolve or loosen contaminants on the surface. Acidic or alkaline solutions are typically employed for this purpose. The cleaning solution is applied to the steel wire rods, breaking down impurities, and rinsed off with water to remove residue. 3. Shot Blasting: High-speed steel shots or grits are propelled against the surface of steel wire rods using compressed air or centrifugal force. This technique efficiently removes rust, scale, or contaminants. 4. Pickling: Specifically designed for removing oxide layers, pickling involves immersing the steel wire rods in an acidic solution, usually hydrochloric acid. This dissolves the oxide layers, resulting in a clean and smooth surface. 5. Ultrasonic Cleaning: High-frequency sound waves create tiny bubbles in a cleaning solution, which effectively remove contaminants from the surface of steel wire rods. This technique is commonly used for delicate or intricate parts, with the rods submerged in a tank filled with the cleaning solution and subjected to ultrasonic waves to dislodge impurities. These techniques are commonly employed to clean the surface of steel wire rods, with the choice depending on the specific requirements of the industry and desired level of cleanliness.

Q:How is steel wire rod used in the manufacturing of wire for elevator counterweights?: Steel wire rod is an essential component in the manufacturing of wire for elevator counterweights. The process begins with high-quality steel wire rods, which are typically made from carbon or alloy steel. These rods are subjected to a series of manufacturing processes to transform them into wire that meets the specific requirements for elevator counterweights. Firstly, the steel wire rods are cleaned and descaled to remove any impurities or surface contaminants. This ensures that the wire produced is of the highest quality and has excellent corrosion resistance. Next, the rods go through the process of drawing, where they are pulled through a series of dies to reduce their diameter and increase their length. This process imparts the desired tensile strength and flexibility to the wire. After the drawing process, the wire is usually annealed to relieve any internal stresses and enhance its ductility. This involves heating the wire to a specific temperature and then slowly cooling it. Annealing not only improves the mechanical properties of the wire but also enhances its resistance to fatigue and wear. Once the wire has been drawn and annealed, it undergoes surface treatment processes such as coating or galvanizing. Coating the wire with a protective layer, such as zinc or epoxy, helps to prevent corrosion and extend its lifespan. Galvanizing involves dipping the wire into a bath of molten zinc to create a protective zinc coating, which provides excellent corrosion resistance. Finally, the coated or galvanized wire is further processed to achieve the desired shape and size for elevator counterweights. It can be cut into specific lengths or wound onto spools for easier handling during the manufacturing process. The wire is then used to form the internal structure of elevator counterweights, which are crucial for balancing the elevator car and ensuring its smooth operation. In summary, steel wire rods play a vital role in the manufacturing of wire for elevator counterweights. They are subjected to various processes, including cleaning, drawing, annealing, and surface treatment, to produce high-quality wire with the necessary strength, flexibility, and corrosion resistance. This wire is then used to construct the internal structure of elevator counterweights, ensuring the safe and efficient operation of elevators.

Q:How is the microstructure of steel wire rod analyzed?: The properties and quality of steel wire rod are examined through various techniques and methods in order to analyze its microstructure. Metallography, a common method, involves cutting and polishing a sample of the steel wire rod to create a flat and smooth surface. The prepared sample is then treated with a chemical solution to expose the microstructure when viewed under a microscope. Optical microscopy is frequently employed to study the microstructure of steel wire rod. It allows for the observation of different characteristics such as grain size, grain boundaries, and the presence of any impurities or flaws. This technique offers valuable insights into the quality and performance of the steel wire rod. Another widely used technique is scanning electron microscopy (SEM), which provides higher magnification and resolution compared to optical microscopy. SEM enables more detailed analysis of the microstructure, revealing surface morphology, grain boundaries, and the presence of precipitates or phases in the steel wire rod. Transmission electron microscopy (TEM), a more advanced technique, is utilized for analyzing the microstructure of steel wire rod. It involves the preparation of an extremely thin sample, typically less than 100 nanometers thick, which is then examined using an electron beam. TEM provides even higher resolution and can unveil the atomic structure, dislocations, and other intricate details of the microstructure. In addition to microscopy techniques, X-ray diffraction (XRD) and electron backscatter diffraction (EBSD) are also employed to analyze the microstructure of steel wire rod. XRD aids in identifying the crystallographic phases present in the steel wire rod, while EBSD provides information about crystal orientations and texture. In conclusion, the analysis of the microstructure of steel wire rod plays a crucial role in comprehending its mechanical properties, durability, and potential applications. These diverse techniques and methods enable researchers and manufacturers to evaluate the quality and ensure the desired microstructure for specific purposes.

Q:What are the different storage methods for steel wire rod?: The storage of steel wire rod varies depending on factors such as quantity, size, and condition. There are multiple methods available. One option is to stack the wire rod neatly and in an organized manner. This involves creating rows of wire rod coils on a stable surface like a concrete floor or a specially designed storage rack. It is crucial to stack the coils in a way that prevents rolling or collapsing for safety and easy access. Another method is to use wire rod racks or shelves. These racks are specifically designed to securely hold wire rod coils and prevent them from rolling or shifting. They often have dividers or compartments to keep each coil separate and well-organized. Vertical racks or stands can also be used, particularly when dealing with longer wire rod lengths. This method saves floor space by placing the rod vertically and securing it in place. For outdoor storage, designated areas with storage containers or shipping containers can be used. This provides protection from the elements and ensures the rod remains in good condition. Regardless of the chosen storage method, it is essential to protect the wire rod from moisture, dust, and other contaminants. This can be achieved by using plastic or metal covers or storing the rod in a climate-controlled environment. It's important to note that the specific storage method may vary depending on industry standards, regulations, and the specific requirements of the wire rod product. Consulting with industry experts or manufacturers is always recommended to determine the most suitable storage method for steel wire rod.

Q:How are steel wire rods used in the manufacturing of electrical conductors?: Steel wire rods are used in the manufacturing of electrical conductors by being drawn into thin wires, which are then used to create the core of the conductor. The steel wire rods provide strength and durability to the conductor, ensuring it can carry electrical current efficiently and safely.

Q:How is steel wire rod used in the manufacturing of wire forms for suspension bridges?: Steel wire rod is a crucial component in the manufacturing of wire forms for suspension bridges. The use of steel wire rod allows for the creation of strong and durable wire structures that are capable of withstanding the immense weight and tension exerted on suspension bridges. Firstly, steel wire rod is used to create the main cables of the suspension bridge. These cables are responsible for supporting the weight of the bridge deck and the traffic load. The steel wire rod is typically twisted or bundled together to form a single, thick cable that can bear the load. The high tensile strength of the steel wire rod ensures that the cables can withstand the forces acting upon them without stretching or breaking. In addition to the main cables, steel wire rod is also utilized in the creation of other wire forms used in suspension bridges. These forms include suspenders, hangers, and cross braces. Suspenders are vertical wires that connect the main cables to the bridge deck, providing additional support. Hangers are horizontal wires that connect the bridge deck to the main cables, helping to distribute the load evenly. Cross braces are diagonal wires that provide lateral stability to the bridge, preventing swaying or twisting. The use of steel wire rod in the manufacturing of wire forms for suspension bridges offers several advantages. Firstly, steel is known for its exceptional strength and durability, making it an ideal material for withstanding the high tension and weight requirements of suspension bridges. Secondly, steel wire rod is highly resistant to corrosion, ensuring the longevity of the bridge and reducing maintenance costs. Overall, steel wire rod plays a crucial role in the manufacturing of wire forms for suspension bridges. Its strength, durability, and resistance to corrosion make it an essential material for creating the main cables, suspenders, hangers, and cross braces that support and stabilize these magnificent structures.

Q:What are the different types of packaging options available for steel wire rod?: There are several packaging options available for steel wire rod, including coils, bundles, spools, and pallets. Coils are the most common packaging option, where the wire rod is wound into a circular shape and held together with binding material. Bundles involve grouping several lengths of wire rod together and securing them with straps or wire. Spools are used for smaller quantities and involve winding the wire rod onto a cylindrical core. Pallets are used for larger quantities and involve placing the wire rod on a wooden or plastic platform, often secured with straps or stretch wrap.

Q:How is steel wire rod used in the manufacturing of wire for garage door springs?: Steel wire rod is an essential component in the manufacturing of wire for garage door springs. The process begins with the selection of high-quality steel wire rod, which is typically made from carbon or alloy steel. This steel wire rod serves as the raw material for producing the wire used in garage door springs. To manufacture wire for garage door springs, the steel wire rod undergoes a series of processes. First, it is drawn through a series of dies to reduce its diameter and increase its length. This drawing process imparts strength and flexibility to the wire, ensuring that it can withstand the tension and compression forces experienced by garage door springs. After the wire has been drawn to the desired diameter, it is heat-treated to further enhance its mechanical properties. This heat-treatment process involves subjecting the wire to specific temperatures and cooling rates, which improves its strength and durability. This step is crucial to ensure that the wire can withstand the repetitive cycles and heavy loads associated with garage door operations. Once the wire has been heat-treated, it undergoes a surface treatment process to enhance corrosion resistance. This may involve coating the wire with a protective layer such as zinc or a polymer coating, which prevents rust and corrosion from compromising the performance and lifespan of the garage door springs. The wire is then coiled into the desired length and diameter, ready to be used in the manufacturing of garage door springs. The coiled wire is fed into specialized machinery that forms it into the desired shape, typically a helical coil, to create the garage door spring. In summary, steel wire rod plays a critical role in the manufacturing of wire for garage door springs. It undergoes processes such as drawing, heat-treatment, and surface treatment to ensure that the resulting wire possesses the necessary strength, flexibility, and corrosion resistance required for reliable and durable garage door springs.

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