• 6mm hot rolled low carbon 1008B steel wire coil/steel wire rod System 1
  • 6mm hot rolled low carbon 1008B steel wire coil/steel wire rod System 2
  • 6mm hot rolled low carbon 1008B steel wire coil/steel wire rod System 3
6mm hot rolled low carbon 1008B steel wire coil/steel wire rod

6mm hot rolled low carbon 1008B steel wire coil/steel wire rod

Ref Price:
get latest price
Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
500 m.t.
Supply Capability:
1000000 m.t./month

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1. Introduction:


Standard:

AISI, ASTM, SGS

Grade:

400 Series

Wire Gauge:

6mm

Length:

M

Application:

construction

Certification:

SGS

C Content (%):

0.03~O.07

Si Content (%):

≤0.30

Place of Origin:

Shandong, China (Mainland)

Brand Name:

Xindadi

Model Number:

6mm

diameter:

5.5-10mm

Steel Grade:

SAE1008B

application:

construction

coil weight:

1.8-2.1ton

Tensile strength:

350-380

Elongation:

≥32

Yield strength:

250-280

Packaging & Delivery

Packaging Details:industrial package or according to customer's requirements
Delivery Detail:valid in 10 days

2. Specifications: 

Name

6mm hot rolled low carbon 1008B steel wire coil/steel wire rod

Standard

GB, SAE, SGS, ASTM

Diameter

6mm

Coil weight

1.8-2.1tons

MOQ

40tons

Deliver Time

15 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

Building material, machinery parts


3.Application:

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


4. Pictures

6mm hot rolled low carbon 1008B steel wire coil/steel wire rod

6mm hot rolled low carbon 1008B steel wire coil/steel wire rod


5.FAQ

We have organized several common questions for our clientsmay help you sincerely 

①How about your company

A world class manufacturer & supplier of castings forging in carbon steel and alloy steelis one of the large-scale professional investment casting production bases in China,consisting of both casting foundry forging and machining factory. Annually more than 8000 tons Precision casting and forging parts are exported to markets in Europe,America and Japan. OEM casting and forging service available according to customer’s requirement.

②How to guarantee the quality of the products

We have established the international advanced quality management systemevery link from raw material to final product we have strict quality test


Q: What are the different types of steel wire rod finishes for improved lubricity?
There are several types of steel wire rod finishes that can be used to enhance lubricity. These include zinc coating, phosphate coating, galvanizing, and polymer coatings. Zinc coating provides a protective layer and reduces friction, while phosphate coating improves surface adhesion for lubricants. Galvanizing involves applying a layer of zinc to the surface, which increases lubricity. Polymer coatings create a smooth and low-friction surface, further enhancing the lubricity of the steel wire rod.
Q: What are the common applications of cold heading quality and oil tempered steel wire rod?
Cold heading quality and oil tempered steel wire rod find wide application across various industries. One prevalent use of cold heading quality steel wire rod lies in the production of fasteners like screws, bolts, and rivets. This process involves shaping the wire into the desired form without the need for any heating. The consistent and high-quality properties of cold heading quality steel wire rod make it an ideal choice for manufacturing fasteners that necessitate high strength, durability, and corrosion resistance. The automotive industry also extensively employs cold heading quality steel wire rod for manufacturing diverse components, including engine parts, suspension systems, and steering systems. The exceptional mechanical properties of the steel wire rod enable it to withstand high stress, making it suitable for these applications. On the other hand, oil tempered steel wire rod commonly finds use in the production of springs. The oil tempering process entails heating the wire to a specific temperature and subsequently quenching it in oil. This process enhances the material's strength and toughness, making it an excellent choice for producing springs that require high resilience and resistance to fatigue. Moreover, the construction industry utilizes oil tempered steel wire rod for manufacturing various reinforcing products, such as wire mesh, pre-stressed concrete strands, and post-tensioning cables. The material's high tensile strength and ability to withstand heavy loads make it a suitable option for reinforcing concrete structures. In conclusion, the versatile applications of cold heading quality and oil tempered steel wire rod encompass fasteners, automotive components, springs, and reinforcing products in the construction industry. These materials are selected for their exceptional mechanical properties, durability, and resistance to corrosion and fatigue.
Q: How is steel wire rod used in the manufacturing of wire forms for transportation vehicles?
Steel wire rod is used in the manufacturing of wire forms for transportation vehicles as it provides strength, durability, and flexibility. It is commonly used to create various wire components such as springs, cables, and reinforcements, ensuring the structural integrity and safety of vehicles. The steel wire rod is shaped, bent, and formed into specific designs and sizes, allowing it to be utilized for various applications in transportation vehicles, such as seat frames, suspension systems, and safety features.
Q: What are the different fatigue testing methods for steel wire rod?
To evaluate the fatigue strength and performance of steel wire rods, there are several methods available. The first method is the Rotating Bending Fatigue Test. This test applies a rotating bending load to the steel wire rod, simulating real-world cyclic loading conditions. The rod is subjected to a constant load while being rotated at a specified speed. The number of cycles until failure is recorded to determine the fatigue strength of the wire rod. Next is the Axial Fatigue Test, where the steel wire rod is cyclically loaded in an axial manner. This test is commonly conducted using hydraulic or servo-hydraulic testing machines. The number of cycles until failure is recorded. This method is useful for evaluating the fatigue performance of steel wire rods used in tension applications, like suspension cables. Another method is the Torsional Fatigue Test. Here, the steel wire rod is subjected to a cyclic torsional load, simulating twisting forces experienced in certain applications. A constant torque is applied while the rod is rotated at a specified speed. The number of cycles until failure is recorded to assess the fatigue strength of the wire rod under torsional loading conditions. Lastly, the Combined Loading Fatigue Test involves subjecting the steel wire rod to a combination of different loading types, such as axial, bending, and torsional loads. This simulates the complex loading conditions encountered in real-world applications. Cyclic loading is applied in multiple directions simultaneously or sequentially. The number of cycles until failure is recorded to evaluate the fatigue performance of the wire rod under combined loading conditions. It is crucial to choose the appropriate fatigue testing method based on the specific application and loading conditions the rod will experience. The selected method should closely replicate the actual loading conditions to obtain accurate and reliable fatigue strength data for the wire rod.
Q: How is steel wire rod used in the manufacturing of wire rope clamps?
Steel wire rod is used in the manufacturing of wire rope clamps as it serves as the raw material for creating the clamps' sturdy and durable structure. The steel wire rod is typically formed, shaped, and manipulated into the desired clamp design, providing the necessary strength and reliability to secure the wire rope in place.
Q: What are the main factors influencing the choice of steel wire rod distributor?
The main factors influencing the choice of a steel wire rod distributor include the distributor's reputation and reliability, the quality and consistency of the wire rod they provide, their pricing and availability, their ability to meet specific requirements and specifications, and their customer service and support. Other factors may include their location and proximity to the buyer, their experience and expertise in the industry, and any additional value-added services they offer.
Q: How are steel wire rods used in the manufacturing of bicycle spokes?
Bicycle spokes heavily rely on steel wire rods, which are pivotal in their production. Typically, these wire rods are crafted from top-notch steel and undergo a series of processes to attain the desired strength and flexibility required for spokes. To commence, meticulous selection and inspection of the steel wire rods are carried out to identify any imperfections or defects. Once the quality check is completed, the rods undergo a thorough cleaning and straightening process to ensure they are devoid of any debris or bends that may jeopardize their structural integrity. Subsequently, the wire rods are precisely cut into lengths that are determined based on the specific measurements required for the bicycle spokes. These measurements are typically based on the size and design of the bicycle wheel. Following the cutting process, the wire rods undergo a crucial procedure called swaging, wherein the diameter of the rod's ends is reduced. This swaging process is of utmost importance as it facilitates the creation of a tapered shape that allows for effortless insertion into the hub and rim of the bicycle wheel. Upon completion of the swaging process, the wire rods are then threaded at one end. This threading is indispensable as it enables the attachment of the spoke nipple, which connects the spoke to the wheel rim. Lastly, the wire rods are treated with a protective coating, such as zinc plating, to enhance their corrosion resistance and ensure their durability. This coating not only increases the longevity of the spokes but also adds an aesthetic appeal. In conclusion, steel wire rods play an indispensable role in the manufacturing of bicycle spokes. Through the selection, cleaning, straightening, cutting, swaging, threading, and coating processes, spokes that are strong, flexible, and corrosion-resistant are created. These spokes are a vital component in ensuring the structural integrity and smooth operation of bicycle wheels.
Q: How is the impact resistance of steel wire rod tested?
The impact resistance of steel wire rod is typically tested using a Charpy impact test. In this test, a notched specimen of the wire rod is subjected to a swinging pendulum that strikes and breaks the specimen. The energy absorbed by the specimen during fracture is measured, which provides an indication of its impact resistance.
Q: What are the different machinability testing methods for steel wire rod?
Steel wire rods have several available methods for testing their machinability, including: 1. The turning test involves using a lathe or turning machine to machine the steel wire rod. The cutting speed, feed rate, and depth of cut are adjusted to evaluate the material's machinability. The machinability characteristics are assessed by observing and analyzing tool wear, surface finish, and chip formation. 2. The drilling test uses a drilling machine to create holes in the steel wire rod. The cutting speed, feed rate, and drill geometry are modified to determine the machinability. The performance of the material during drilling is evaluated by examining hole quality, chip formation, and tool wear. 3. Tapping is a common machining operation performed on steel wire rods to create threaded holes. The tapping test involves tapping the steel wire rod using a tapping tool. The machinability of the material is determined by assessing the torque required, tool life, and thread quality. 4. Grinding is a precision machining process used to remove material from the steel wire rod. The grinding test includes grinding the steel wire rod using a grinding wheel or abrasive belt. The machinability is evaluated by adjusting the grinding speed, feed rate, and grinding wheel specification. The performance of the material during grinding is analyzed by examining surface roughness, material removal rate, and grinding wheel wear. 5. The hardness test indirectly assesses machinability by measuring the hardness of the steel wire rod. Hardness is an important mechanical property that affects machinability. Various hardness testing methods, such as Rockwell, Brinell, or Vickers hardness tests, can be performed to determine the hardness of the steel wire rod. Higher hardness values indicate lower machinability, while lower hardness values suggest better machinability. These testing methods assist manufacturers and engineers in selecting the most appropriate machining parameters and tools for processing steel wire rods. By understanding the machinability characteristics, they can optimize machining operations, improve productivity, and minimize tool wear and material waste.
Q: What are the different grain size measurement methods for steel wire rod?
There are several different grain size measurement methods commonly used for steel wire rod. These methods provide important information about the microstructure and mechanical properties of the steel. One widely used method is the ASTM E112 standard, which involves the use of a microscope to measure the average grain size. This method requires preparing a metallographic sample, polishing it to a mirror-like finish, and etching it to reveal the grain boundaries. The sample is then examined under a microscope, and the grain boundaries are traced and counted to determine the average grain size. Another method is the Sieve Analysis method, which is commonly used for determining the grain size distribution in steel wire rod. In this method, a representative sample of the wire rod is sieved through a series of progressively smaller mesh sieves. The weight of material retained on each sieve is measured, and the grain size distribution is determined based on the percentage of material retained on each sieve. The Laser Diffraction method is another commonly used technique for measuring grain size in steel wire rod. In this method, a laser beam is directed through a suspension of the wire rod particles, and the scattering pattern is measured. The size of the particles can be determined based on the diffraction pattern, allowing for the calculation of the grain size distribution. Other methods include the Electron Backscatter Diffraction (EBSD) method, which uses an electron microscope to determine the crystallographic orientation and grain boundaries in the wire rod, and the X-ray Diffraction (XRD) method, which measures the angle of diffraction of X-rays to determine the crystallographic structure and grain size. Each of these grain size measurement methods has its advantages and limitations, and the choice of method depends on factors such as the desired level of accuracy, the type of steel wire rod being analyzed, and the available equipment and expertise.

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