• SAE1006B Steel Wire Rod 6.5mm with in China System 1
  • SAE1006B Steel Wire Rod 6.5mm with in China System 2
  • SAE1006B Steel Wire Rod 6.5mm with in China System 3
SAE1006B Steel Wire Rod 6.5mm with in China

SAE1006B Steel Wire Rod 6.5mm with in China

Ref Price:
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Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
500 m.t.
Supply Capability:
45555555 m.t./month

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Specification

Standard:
ASTM
Technique:
Cold Drawn,Extruded
Shape:
LTZ,Rectangular
Surface Treatment:
Copper Coated,Coated,Black
Steel Grade:
SS400-SS490,HRB400,Q215
Certification:
BSI,BV
Thickness:
5
Width:
10
Length:
50
Net Weight:
80

Description of wire Rod:

Our company is recognized by ISO9001:2008

 1. hot rolled wire rod

 2. material: Q195-235

 3. payment: T/T or L/C

 4.size: 5mm-19mm


Festures of wire Rod:

1. Drawn wire specialist, your wire rod solution 
2. ISO9001 Certified Mill &SGS

3. Feature: machinability, high hardness, toughness, corrosion resistant

4. Clear and smooth surface, high precision and Tolerance control:  ± 0.01


Specifications of wire Rod: 

Product 

steel wire rod 

Standard

AISI, ASTM, BS, DIN, GB, JIS

Material/steel grade

Q195-Q235,SAE1006, SAE1008, SAE1010, SAE1018, SAE1020 or according to customers requirements

Wire Gauge

5.5-12mm

Coil weight

1.8-2.1mts

MOQ

25MT

Delivery Time

15-30 days after receipt of L/C or deposit by T/T

Packing

In coil and load in container, if large quantity, by bulk vessel; Can be packed as customers' special requirements

Payment terms

1).100% irrevocable L/C at sight.
2).30% T/T prepaid and the balance against the copy of B/L.
3).30% T/T prepaid and the balance against L/C

Application

widely used in machinery parts, manufacturing industry, electronics industry, metal tools and others


Images of wire Rod:

SAE1006B Steel Wire Rod 6.5mm with in China


FAQ:  
1. What is your package?

Packing situation: standard seaworthy packing or as customer required.

2. How long is the lead time?

Delivery time: 45 days after order confirmed.

3. What  payment term do you accept?

Payment: T/T or L/C at sight. 

Q: What are the different types of steel wire rod coatings used for improved ductility?
Some of the different types of steel wire rod coatings used for improved ductility include phosphate coatings, zinc coatings, and polymer coatings. These coatings enhance the flexibility and malleability of the steel wire rod, making it more pliable and less prone to cracking or breaking.
Q: How is steel wire rod used in the manufacturing of piano wire?
Steel wire rod is an essential material used in the manufacturing of piano wire due to its strength, durability, and flexibility. Piano wire, also known as music wire, is a high-tensile steel wire that is primarily used in the construction of piano strings but also finds application in various other industries such as aerospace, automotive, and medical. To produce piano wire, steel wire rod is first subjected to a series of manufacturing processes. The rod is cleaned and descaled to remove any impurities or surface contaminants. It is then heated to a specific temperature to improve its malleability and make it easier to work with. Next, the steel wire rod is drawn through a series of dies to gradually reduce its diameter. This process, known as wire drawing, involves pulling the rod through a die with a smaller hole size, which elongates and thins the rod while increasing its strength and tensile properties. This drawing process is repeated multiple times until the desired wire thickness is achieved. Once the desired thickness is obtained, the wire is further heat-treated to enhance its mechanical properties. This heat treatment process, known as patenting, involves heating the wire to a specific temperature and then cooling it rapidly to increase its strength, elasticity, and resistance to deformation. After the patenting process, the wire is carefully inspected for any defects or imperfections. Any flawed wire is discarded to ensure the final product maintains the highest quality standards. The resulting steel wire, now in the form of piano wire, possesses exceptional tensile strength, allowing it to withstand the high tension required for piano strings. Its inherent flexibility enables it to vibrate freely, producing the rich and resonant tones associated with high-quality pianos. In summary, steel wire rod is a critical component in the manufacturing of piano wire due to its strength, durability, and flexibility. Through a series of manufacturing processes such as cleaning, heating, wire drawing, and heat treatment, the wire rod is transformed into a high-tensile steel wire that can withstand the demanding requirements of piano strings.
Q: What are the different surface marking materials used for steel wire rod?
The different surface marking materials used for steel wire rod include paint, ink, and laser marking.
Q: How does the tensile strength of steel wire rod vary with different heat treatment processes?
The heat treatment process applied can greatly impact the tensile strength of steel wire rod. Various heat treatment processes, including annealing, normalizing, quenching, and tempering, can have a profound influence on the wire rod's tensile strength. Annealing is a process where the steel wire rod is heated to a specific temperature and then slowly cooled. This helps alleviate internal stresses and enhance the wire rod's ductility. Consequently, the tensile strength decreases, but the elongation and overall toughness improve. On the contrary, normalizing involves heating the steel wire rod to a higher temperature than annealing, followed by cooling in still air. This refines the grain structure, enhancing both strength and hardness. The tensile strength increases, but there may be a slight decrease in ductility and toughness. Quenching is a rapid cooling process that entails immersing the steel wire rod in a quenching medium, like oil or water, after heating it to a high temperature. This leads to the formation of a strong and hard structure known as martensite. Consequently, the tensile strength significantly increases, but ductility decreases substantially. Lastly, tempering involves reheating the quenched wire rod to a lower temperature and then slowly cooling it. This helps relieve internal stresses and reduce brittleness caused by quenching. Therefore, the tensile strength slightly decreases, but ductility and toughness improve. To summarize, different heat treatment processes have varying effects on the tensile strength of steel wire rod. Annealing decreases tensile strength but improves ductility; normalizing increases tensile strength while slightly reducing ductility; quenching significantly increases tensile strength but decreases ductility; tempering slightly reduces tensile strength while improving ductility. Hence, the choice of heat treatment process must be carefully considered based on the desired properties of the steel wire rod.
Q: What are the common production processes for aluminum-coated steel wire rod?
The common production processes for aluminum-coated steel wire rod include cleaning the steel wire rod to remove any impurities, applying a layer of aluminum to the steel wire rod through a process called hot-dip coating or electroplating, and then subjecting the aluminum-coated steel wire rod to heat treatment to ensure proper adhesion and durability of the coating.
Q: How is the tensile strength of steel wire rod tested?
The tensile strength of steel wire rod is typically tested using a method called the tensile test or the tension test. This test is performed to determine the maximum load or force that the wire rod can withstand before it breaks or fails under tension. In the tensile test, a representative sample of the steel wire rod is prepared by cutting it into a specific length. The sample is then placed in a testing machine called a tensile testing machine or universal testing machine. This machine consists of two jaws, one stationary and one movable, which grip the ends of the wire rod securely. Once the sample is properly positioned in the testing machine, the movable jaw is pulled away from the stationary jaw, exerting a gradually increasing force on the wire rod. The machine measures the force applied to the sample and simultaneously records the resulting elongation or deformation of the wire rod. During the test, the force and the elongation are continuously monitored until the wire rod fractures. The maximum force applied just before the fracture occurs is recorded as the tensile strength of the steel wire rod. This tensile strength value indicates the maximum load or stress that the wire rod can endure without breaking. To ensure accurate and reliable results, multiple samples are usually tested to account for any variability in the material properties. The average of these results is then taken as the representative tensile strength of the steel wire rod. Overall, the tensile strength of steel wire rod is determined through a controlled testing process using a tensile testing machine, which measures the maximum force applied to the sample before it fractures, providing valuable information about the material's strength and performance.
Q: How is steel wire rod used in the production of nails and fasteners?
Nails and fasteners heavily rely on steel wire rod, a fundamental element in their manufacturing process. Serving as the main raw material, it grants the necessary strength and durability to these items. To create nails and fasteners, steel wire rod undergoes a series of carefully planned procedures. Initially, it is heated and rolled into a coil shape, enhancing its ductility and reducing its thickness. This procedure, known as hot rolling, imparts the wire rod with the essential properties required for subsequent manipulation. Following hot rolling, the wire rod goes through cold drawing, where it is pulled through a set of dies to further decrease its diameter. This process not only improves the wire's surface finish but also enhances its mechanical properties, including tensile strength and hardness. Upon completion of cold drawing, the drawn wire is cut into specific lengths, depending on the desired size of nails or fasteners. These lengths are then fed into either a nail making machine or a fastener production line. In the case of nails, the wire is passed through a cutter that shapes the nail heads and points. Conversely, for fasteners, the wire is molded and formed into the desired product, such as screws, bolts, or rivets. The quality of the steel wire rod utilized in the production of nails and fasteners is of utmost importance for the performance of the end products. It must possess exceptional tensile strength, as nails and fasteners are subjected to significant stresses during use. Moreover, the wire rod needs to exhibit corrosion resistance, ensuring that the nails and fasteners can endure exposure to moisture and other environmental conditions without deterioration. All in all, steel wire rod assumes a crucial role in the production of nails and fasteners, providing the indispensable strength, durability, and corrosion resistance necessary for these essential commodities.
Q: How is steel wire rod tested for impact resistance?
Steel wire rods are tested for impact resistance through a standardized procedure known as Charpy or Izod test. In this test, a notched sample of the wire rod is placed in a pendulum impact tester. The pendulum is then released, striking the sample and causing it to fracture. The energy absorbed during fracture is measured, indicating the material's resistance to impact. This test helps determine the robustness and durability of the steel wire rod in various applications.
Q: How is steel wire rod used in the manufacturing of suspension bridges?
Steel wire rod is a crucial component in the manufacturing of suspension bridges. It is primarily used in the construction of the main cables, which are the most critical load-bearing elements of these bridges. The main cables of suspension bridges are responsible for supporting the weight of the bridge deck and transferring the load to the towers or piers. The steel wire rod is first formed into individual strands, typically ranging from hundreds to thousands of wires per strand, depending on the size and load capacity of the bridge. These strands are then tightly wrapped around a central core to form the main cable. The strength and durability of the steel wire rod make it an ideal material for this application, as it can withstand the immense tension and load placed on the bridge. In addition to the main cables, steel wire rod may also be used in other components of suspension bridges, such as the hangers and suspenders. These elements connect the bridge deck to the main cables and help distribute the load evenly across the entire structure. Steel wire rod is chosen for these applications due to its high tensile strength, excellent flexibility, and resistance to corrosion. Overall, steel wire rod plays a vital role in the manufacturing of suspension bridges by providing the necessary strength, durability, and flexibility required to support the structure and ensure its safe and efficient operation.
Q: How is the fatigue strength of steel wire rod determined?
The fatigue strength of steel wire rod is established by conducting a series of tests that entail subjecting the material to repetitive cycles of loading and unloading until it fails. This procedure, known as fatigue testing, aids in determining the endurance limit or fatigue strength of the wire rod. Throughout the process of fatigue testing, a sample of the steel wire rod is prepared in accordance with specific standards and guidelines. Typically, the sample takes the form of a specimen with standardized dimensions and shape. The preparation of the sample entails meticulously machining the wire rod to eliminate any surface imperfections or irregularities that could impact the test results. The subsequent step involves subjecting the sample to cyclic loading, wherein the wire rod is repeatedly exposed to a fluctuating load. This can be achieved using specialized testing machines that apply the load in a controlled manner. The load applied during the testing process may either be of constant amplitude or variable amplitude, depending on the specific requirements of the test. The sample is usually loaded with a range of stress amplitudes, commencing from a relatively low value and progressively increasing until failure occurs. The number of cycles until failure is recorded for each stress level, and this data is employed to construct an S-N curve, also known as a fatigue curve. The S-N curve depicts the correlation between the applied stress amplitude and the number of cycles until failure. Through analysis of the S-N curve, engineers can determine the fatigue strength of the steel wire rod. Fatigue strength is generally defined as the stress amplitude at which the material can endure an infinite number of cycles without experiencing failure. This is commonly referred to as the endurance limit. In addition to fatigue testing, other factors such as material composition, surface finish, and environmental conditions can also impact the fatigue strength of steel wire rod. Hence, it is crucial to consider these factors when assessing the fatigue strength of the wire rod for specific applications.

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