Colored Coated Stainless Steel for Buliding Materials

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25 m.t.
Supply Capability:
8000 m.t./month
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Colored Coated Stainless Steel:






             Cold Rolled

Surface Treatment:




Special Use:

         Silicon Steel




           Ral or according to sample

Packaging & Delivery

Packaging Detail:color steel coil STANDARD EXPORT SEAWORTHY PACKING


color steel coil
Prime Quality, Quick Delivery, Competitive Price

Prepainted Galvanized Steel Coil (PPGI/PPGL)


Base material:                             Hot dipped galvanized steel

Width:                                       available from 800MM to 1250MM

Width Tolerance:                         within 0.02MM

Thickness:                                 available from 0.18MM to 0.80MM

Thickness Tolerance:                   within 0.15MM

Performance:                              Smooth or Matte

Color:                                         according to RAL standard

Lacquer Coating thickness:           according to customer needs

Supply capacity:                          8,000 Metric Ton per month

Our products has good performance on combining force and anti-erosion. We offer fine quality products and best price for our international customers.

Q:I am looking for a steel taper kit to help me start stretching my earlobes. I wanted something like the following but in steel instead of acrylic. Preferably something under $40 and from a reputable website. I don't know how much damage acrylic tapers can do in the few seconds it would be inside my earlobe, but I would rather use steel just to be safe. I will be forever grateful if anyone can help.
There are several types of steel coil packaging methods, including strapping, wrapping, and stacking. Strapping involves using metal or plastic bands to secure the coil and prevent it from unwinding. Wrapping is done by covering the coil with a protective layer, such as plastic or paper, to shield it from moisture and damage. Stacking involves placing multiple coils on top of each other, usually on pallets, to optimize storage space and facilitate transportation.
Steel coils are typically handled using cranes, forklifts, or coil hooks during loading and unloading. The coils are carefully lifted, secured, and transported to their respective destinations. Special attention is paid to ensure proper balance, stability, and safety measures are followed to prevent any damage or accidents during the process.
Steel coils play a vital role in manufacturing metal shelving. Made from high-quality steel, these coils go through a series of manufacturing processes to transform them into sturdy and long-lasting shelves. To start, the steel coils are unwound and flattened to the desired thickness using a machine known as a slitter. This step ensures that the coils are uniform in size and thickness, which is crucial for producing consistent and dependable shelves. Next, the flattened steel is cut into specific lengths using a shear. These pieces are then sent to a press brake, where they are bent and shaped into the desired design for the shelves. The press brake applies pressure to the metal, allowing it to be folded or formed into various angles and shapes, such as shelves with raised edges or adjustable brackets. Once the shelves have been formed, they undergo a welding process to securely fuse any joints or seams. This welding process ensures the shelves' structural integrity, enabling them to support heavy loads and maintain their shape over time. After welding, the shelves go through surface treatment to improve their appearance and protect them from corrosion. This may involve cleaning, sandblasting, and painting. The surface treatment not only enhances the shelves' aesthetic appeal but also extends their lifespan by preventing rust and other forms of deterioration. Lastly, the shelves undergo a quality control inspection to ensure they meet the necessary standards. This involves checking for defects, measuring dimensions, and conducting load-bearing tests to ensure the shelves can withstand the intended weight capacity. In summary, steel coils are integral to the production of metal shelving. Through processes like unwinding, flattening, cutting, bending, welding, treating, and inspecting, these coils are transformed into strong, durable, and visually pleasing shelves suitable for various settings such as warehouses, retail stores, and homes.
Various industries and applications utilize a range of steel coil grades. Some commonly employed types include: 1. Carbon Steel: This fundamental steel variant consists primarily of iron and carbon. Its widespread use in construction, automotive, and manufacturing industries stems from its exceptional strength and durability. 2. Stainless Steel: This specific steel variant incorporates chromium, which imparts corrosion resistance, making it appropriate for applications requiring protection against oxidation and staining. Industries such as food processing, chemical, and medical frequently employ stainless steel. 3. High-Strength Low-Alloy (HSLA) Steel: HSLA steel comprises trace amounts of alloying elements like copper, phosphorus, niobium, and vanadium. This steel variant offers superior strength and improved mechanical properties when compared to carbon steel, rendering it suitable for structural applications. 4. Galvanized Steel: This type of steel undergoes a zinc coating process to safeguard against corrosion. Galvanized steel finds common use in outdoor applications like roofing, fencing, and automotive components. 5. Electrical Steel: Also known as silicon steel, electrical steel possesses high magnetic permeability, low electrical conductivity, and minimal core loss. It finds application in the production of transformers, motors, and other electrical equipment. 6. Tool Steel: Tool steel, a high-carbon steel variant, is specifically engineered for fabricating tools and dies. Its outstanding hardness, wear resistance, and toughness make it appropriate for cutting, forming, and shaping materials. These examples represent merely a fraction of the available steel coil grades. Each grade exhibits its own distinct properties and characteristics, rendering it suitable for specific applications within various industries.
Q:If i get a samurai sword made of carbon steel, what is the hardest thing i can hit before it breaks? Or will it not break?
The term carbon steel by itself doesn't mean much. All steel has carbon in it. The definition of steel is iron that has been heated and had carbon dissolved into it and trapped on cooling into its atomic matrix. The amount of carbon in a particular piece of steel does have an effect on its properties. The more carbon it has, the harder it is, but also the more brittle it is. So you can have a high carbon steel blade which is very hard, and holds a great edge, but is likely to break. Or you can have a low carbon steel blade that is very tough and hard to break, but dulls easily. Your real, traditional samurai swords were made to have a core of low carbon steel, jacketed with an outer layer of high carbon steel. Thus they were very strong and hard to break, yet had an extremely hard, sharp edge. If that's what you have you can probably whack away to your hearts content. But you probably have some kind of homogenous steel reproduction type blade. What you can do depends on what steel was used.
There are several coil slitting methods commonly used for steel coils. These methods are employed to cut larger steel coils into smaller, narrower coils that are suitable for specific applications. 1. Blade Slitting: This is the most common method used for coil slitting. It involves using circular knives or blades to cut the steel coil into narrower strips. The blades are set at predetermined distances and are usually mounted on a rotating shaft. The coil is passed through the blades, and the circular motion of the blades slices through the coil, creating the desired narrower strips. 2. Rotary Shear Slitting: In this method, two sets of rotary shear knives are used to cut the steel coil. The upper and lower sets of knives rotate in opposite directions, creating a scissor-like cutting action. The coil is passed through the shearing blades, and the sharp edges of the knives slice through the coil, producing the desired narrower strips. 3. Sliding Shear Slitting: Sliding shear slitting is another method used for coil slitting. In this method, a stationary upper knife and a moving lower knife are used to cut the coil. The lower knife moves back and forth across the coil, while the upper knife remains stationary. The coil is passed through the moving knife, which cuts it into narrower strips. 4. Crush Slitting: Crush slitting is a less common method used for coil slitting. In this method, the steel coil is passed through a set of rollers equipped with blades. The blades are not sharp, but the pressure exerted by the rollers crushes and fractures the coil, creating the desired narrower strips. 5. Laser Slitting: Laser slitting is a modern and precise method used for coil slitting. It involves using a laser beam to cut through the steel coil. The laser beam is directed onto the coil, and its high intensity melts and vaporizes the steel, creating a narrow slit. Laser slitting offers high accuracy and a clean cut, making it suitable for specialized applications. Each of these coil slitting methods has its advantages and limitations, and the choice of method depends on factors such as the type of steel, desired strip width, production volume, and required precision. Manufacturers select the most appropriate method based on their specific requirements and the properties of the steel coils they are processing.
Due to their durability, strength, and versatility, steel coils are an indispensable element in the production of storage systems. Typically made from high-quality steel, these coils are formed by rolling the steel into a coil shape. Within the manufacturing process of storage systems, steel coils serve multiple functions. Primarily, they are utilized in the construction of shelves, racks, and frames. These components offer the necessary structural support to hold and arrange items within the storage system. The robustness of the steel coils guarantees that the storage system can endure heavy loads and maintain stability over time. Furthermore, steel coils are employed in the fabrication of accessories for storage systems, such as brackets, hooks, and dividers. These accessories provide additional functionality and customization options, enabling users to optimize their storage space according to their specific requirements. Moreover, steel coils often serve as the material for doors and panels in storage systems. These coils are molded and shaped to create sturdy and secure doors that offer convenient access to the stored items while maintaining the overall integrity of the system. These doors can be designed with various locking mechanisms to enhance security and prevent unauthorized access. Additionally, steel coils are crucial in the production of mobile storage systems. These systems, such as mobile shelving units or compactors, are designed to maximize storage capacity in limited space. The flexibility and versatility of steel coils allow for the creation of movable components that can be easily adjusted and reconfigured to accommodate changing storage requirements. In summary, steel coils play a vital role in the manufacturing of storage systems, providing the necessary strength, durability, and versatility required for these structures. Whether utilized for shelves, accessories, doors, or mobile systems, steel coils ensure that storage systems are reliable, secure, and efficient in organizing and storing various items.
Various methods can be utilized to achieve different finishes on steel coils. One of the most commonly used is known as coil coating. This process involves several steps, including cleaning, priming, coating, and curing the steel coil to obtain the desired finish. To begin, any contaminants on the surface of the coil are removed, followed by the application of a primer to improve adhesion. Finally, a specific paint or coating material is applied to the coil. The coated coil is then subjected to high temperatures to ensure proper adhesion and durability. Another method for processing steel coils is galvanization. This technique involves coating the steel coil with a layer of zinc to protect it from corrosion. Galvanization can be achieved through hot-dip galvanization, where the coil is immersed in molten zinc, or electro-galvanization, where a thin layer of zinc is electroplated onto the coil. The resulting galvanized finish offers exceptional corrosion resistance and can be further processed for various aesthetic finishes. Furthermore, different surface treatments can be employed to achieve desired finishes on steel coils. These treatments may include pickling, which utilizes an acid solution to eliminate scale and impurities from the coil, or mechanical treatments like brushing or grinding to create a specific texture. Following these surface treatments, a protective coating or paint can be applied to enhance the appearance and durability of the coil. In conclusion, achieving various finishes on steel coils necessitates a combination of cleaning, coating, curing, and surface treatments. The selection of specific methods depends on the desired finish and the intended application of the steel coil.
Steel coils can undergo various heat treatment methods, each offering unique benefits and applications. One method is annealing, where steel coils are heated to a high temperature and gradually cooled in a controlled environment. This relieves internal stresses, enhances ductility, and refines the grain structure, resulting in softer and more machinable steel. Another method, normalizing, is similar to annealing but involves a faster cooling process. It aims to refine the grain structure and achieve uniform hardness throughout the coils. Normalizing also eliminates residual stresses and improves mechanical properties. Quenching and tempering is a two-step process that begins with heating the coils to a high temperature and rapidly cooling them in a quenching medium like oil or water. This creates a hard and brittle phase called martensite. To enhance toughness and reduce brittleness, the coils are reheated to a lower temperature and held there for a specific duration, a process known as tempering. Tempering helps decrease internal stresses and increase ductility and toughness. Case hardening is another method used to increase the surface hardness of steel coils while maintaining a soft and ductile core. This involves heating the coils in a carbon-rich atmosphere, allowing carbon to diffuse into the surface layer. The result is a hard outer layer, known as the case, while the core retains desired mechanical properties. Stress relieving is performed by heating the coils to a specific temperature and holding them there for a sufficient time. This minimizes residual stresses from previous manufacturing or heat treatment processes. Stress relieving improves dimensional stability, reduces the risk of distortion or cracking, and enhances overall performance. The choice of heat treatment method depends on desired properties, intended application, and specific requirements of the end product. Each method has its own advantages and can be customized to achieve the desired balance between hardness, toughness, ductility, and other mechanical properties.

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