• HOT-DIP ALUZINC STEEL COIL System 1
  • HOT-DIP ALUZINC STEEL COIL System 2
  • HOT-DIP ALUZINC STEEL COIL System 3
  • HOT-DIP ALUZINC STEEL COIL System 4
  • HOT-DIP ALUZINC STEEL COIL System 5
HOT-DIP ALUZINC STEEL COIL

HOT-DIP ALUZINC STEEL COIL

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1.Mateials:SGCC,DX51D /   DX52D /S250,280GD  

2.Size:width:600-1250mm(900mm,1215mm,1250mm,1000mm the most common)

           thickness:0.15-2.0mm

          length:1000-6000mm,as your require

3.Zinc coating :60-180g( as required)

4.Coil id:508mm

5.Coil weight: 3-5MT(as required)

6. Surface:regular/mini/zero spangle, chromated, skin pass, dry etc.

7. Application:

With excellent cold bending molded manufacturablity, good decoration effect, strong anti-corrosion ability, galvanized steel coils and sheets are also pollution-free and easily recycled. Accordingly, they can be used as final products and basic plates of color coated steel coils

8.Packaging Details:

Standardexport package.

Othertypes of packing can be customized as per client's requirements


Q:How do steel coils compare to other materials like aluminum or copper?
Steel coils have several advantages and disadvantages when compared to other materials like aluminum or copper. One major advantage of steel coils is their strength and durability. Steel is known for its high tensile strength, which means it can withstand heavy loads and high stress without deformation. This makes steel coils ideal for applications that require strong and sturdy materials, such as construction, automotive manufacturing, and transportation industries. In comparison, aluminum and copper are generally softer and less strong than steel, making them less suitable for heavy-duty applications. Another advantage of steel coils is their cost-effectiveness. Steel is a relatively inexpensive material compared to aluminum or copper, making it a more affordable option for large-scale projects or mass production. Additionally, steel is highly recyclable, contributing to its cost-effectiveness and sustainability. However, steel coils also have some drawbacks compared to aluminum or copper. One notable disadvantage is their weight. Steel is significantly denser than aluminum or copper, which can make steel coils heavier and more challenging to handle and transport. This can be a drawback in industries where weight is a critical factor, such as aerospace or electrical applications. Another disadvantage of steel coils is their susceptibility to corrosion. While aluminum and copper are naturally corrosion-resistant, steel is prone to rust and oxidation. Therefore, steel coils need to be properly protected and coated to prevent corrosion, which adds to the overall cost and maintenance requirements. In summary, steel coils offer superior strength, durability, and cost-effectiveness compared to aluminum or copper. However, they are generally heavier and more prone to corrosion. Ultimately, the choice between steel, aluminum, or copper will depend on the specific application, budget, and requirements of the project.
Q:What bike companies make the best Steel Road bikes?
steel bikes are now mostly custom and expensive colnago lemond are factory [expensive] though giant doesn;t make them that i know of wle.
Q:I am making a permanent magnet, just for fun. I am trying to find the best grade of steel to do so with.
This page on spark test tells how to use a grinding wheel to get a rough idea of what you've got. Includes drawings of sparks for magnet steel;
Q:How do steel coils contribute to the automotive lightweighting trend?
There are several ways in which steel coils contribute to the automotive lightweighting trend. Firstly, they are used in the production of advanced high-strength steels (AHSS), which offer a higher strength-to-weight ratio compared to traditional steel grades. These AHSS provide the same structural integrity as conventional steel but with less weight. By using AHSS in the construction of vehicle components such as body panels, chassis, and suspension systems, automakers can reduce the overall weight of the vehicle, leading to improved fuel efficiency and lower emissions. Additionally, steel coils are utilized in the manufacturing of tailor-rolled blanks (TRBs). TRBs are created by welding or bonding different steel grades together in a coil before stamping them into the desired shape. This method allows for the optimization of material usage, as stronger steel grades can be strategically placed in areas that require higher strength, while lighter grades can be used in less critical areas. This technique not only reduces weight but also enhances safety by reinforcing necessary areas of the vehicle. Furthermore, steel coils enable the production of thinner and more formable steel sheets. Advances in steelmaking technology have made it possible to develop thinner gauges without compromising strength and durability. Thinner steel sheets are easier to shape and form, making it possible to create complex and lightweight automotive parts. This not only reduces weight but also improves design flexibility and aerodynamics, resulting in enhanced performance and fuel efficiency. Moreover, steel coils contribute to cost-effectiveness in lightweighting efforts. Steel is a relatively affordable material compared to alternatives like aluminum or carbon fiber. By utilizing steel coils, automakers can achieve their lightweighting goals while keeping manufacturing costs under control. This affordability aspect is particularly important in the automotive industry, where cost considerations play a significant role in vehicle design and production. In conclusion, steel coils play a vital role in the automotive lightweighting trend by enabling the production of advanced high-strength steels, tailor-rolled blanks, thinner and more formable steel sheets, and cost-effective lightweight solutions. These advancements contribute to improved fuel efficiency, reduced emissions, enhanced safety, and increased design flexibility, all of which are crucial factors in the ever-changing automotive industry.
Q:...particularly for jewelry?
Stainless steel is steel with lots of carbon in it. The amount of carbon gives it a so called grade. Marine grade, surgical grade etc.
Q:How are steel coils used in the production of fencing materials?
Steel coils are used in the production of fencing materials by being unwound and flattened to create the wire used for fencing. The steel wire is then further processed and shaped into different forms, such as chain link or barbed wire, to meet specific fencing needs.
Q:melting point, as compare to stainless steel
Be *real cautious* using HCL round stainless. A lowering acid like HCL will wreck down the oxide layer on the stainless, and corrosion will proceed. So far as i do know, there is not any scale down level at which HCL will not attack the skin oxide, however at very low concentrations maybe somewhat rust/pitting/corrosion is not going to be a main issue. Oxidizing acids like nitric, and to a couple measure sulfuric, will passivate stainless under the right conditions. But on simple, mild steels, corrosion will proceed to form FeCl and FeSO4 corrosion merchandise. The corrosion will haven't any outcomes on tensile, hardness or affect until ample fabric has been eliminated via corrosion to make a measurable change. Hydrogen embrittlement is a likelihood if there's constant anxiety, and hydrogen is advanced in corrosion. Whether or not it is a challenge would rely on the drawback.
Q:How are steel coils inspected for formability using forming tests?
Steel coils are inspected for formability using forming tests to assess their ability to be shaped into desired forms without any defects or failures. These tests are conducted to evaluate the material's mechanical properties and determine its suitability for specific applications. Forming tests involve subjecting the steel coil to various forming operations, such as bending, deep drawing, or stretch forming. The coil is typically cut into specified dimensions and then subjected to these operations using specialized equipment. The key objective is to simulate the actual forming process that the steel will undergo in real-world applications. During the forming tests, several parameters are closely monitored. These include the amount of force or load applied, the rate of deformation, and the resulting strain or deformation experienced by the steel. Additionally, the coil's response to these operations is observed, including any visible defects like cracks, fractures, or surface imperfections. By carefully analyzing the performance of the steel coil during the forming tests, various formability characteristics can be determined. These include the material's resistance to deformation, its ability to withstand strain without failure, and its tendency to exhibit defects under specific forming conditions. The results obtained from these tests provide valuable insights into the suitability of the steel coil for specific forming processes and applications. Moreover, advanced techniques such as digital image correlation and strain analysis may be employed to precisely measure and evaluate the strain distribution across the steel coil's surface. These techniques help identify regions of the coil that experience higher strain and potential failure points. In conclusion, steel coils are inspected for formability using forming tests that simulate the actual forming processes they will undergo. These tests assess various formability characteristics, including the material's resistance to deformation and its propensity for defects. The results obtained from these tests aid in determining the suitability of the steel coil for specific applications and guide the selection of appropriate forming parameters.
Q:Which steels were origianally designed to be used to cut and shape metals and other materials?- alloy steel- high carbon steel- carbide steel- tool steelthanks
Steels okorder
Q:The steel is orangish in colour and is mostly made of copper
Steel is an alloy of iron and carbon and optionally one or more of numerous other materials. Copper is normally not used, except sometimes in small percentages. Steel is never yellow or orange in color. Reactivity of steel depends on the materials it is alloyed with. Chromium and nickel with steel make stainless steel, which is much less prone to reactive than iron. .

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