Nickel Plated Copper Strips

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Loading Port:: China Main Port

Payment Terms:: TT OR LC

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Specifications

nickel plated copper strips
1. Purity: more than 99.7%
2. Strip Thickness: 0.05mm above
3. Resistance to corrosion in acid

nickel plated copper strips

Grade	Ni201
Standard	ASTM B162
Size	T0.05-0.5mm×W250mm×coil Slitting the width according to the requirements of customers’
Application	Metallurgy, electronics, chemical, petroleum, pharmaceutical, aerospace and other

We supply Pure Nickel strip, the pure nickel strip has good mechanical properties over a wide range of temperature and excellent resistance to corrosive.

We could provide SGS test report and RoHs report.

Welcome to place a sample order.

Q: How long do steel strips typically last?: Steel strips can typically last for several decades, depending on various factors such as the quality of the steel, the environment they are exposed to, and the level of maintenance they receive.

Q: Can steel strips be used in the manufacturing of agricultural equipment?: Yes, steel strips can be used in the manufacturing of agricultural equipment. Steel strips provide strength, durability, and resistance to corrosion, making them suitable for various applications in agricultural machinery such as plows, cultivators, harvesters, and seeders.

Q: What are the different bending methods used for steel strips?: There are several bending methods used for steel strips, including roll bending, press bending, and rotary draw bending. Roll bending involves passing the strip through a series of rolls to gradually bend it into the desired shape. Press bending utilizes a hydraulic press to apply force and bend the strip. Rotary draw bending involves clamping the strip and using a rotating die to bend it. These methods offer different levels of precision and flexibility, allowing for various bending requirements in steel strip applications.

Q: How are steel strips annealed for improved ductility?: Steel strips are annealed for improved ductility through a process called annealing. Annealing involves heating the steel strips to a specific temperature and then slowly cooling them down. This process helps to eliminate any internal stresses and improve the ductility of the steel. The first step in annealing steel strips is heating them to a temperature above their recrystallization temperature. This temperature varies depending on the composition of the steel, but it is typically around 1000 to 1100 degrees Celsius. By heating the steel strips above this temperature, the existing grain structure is broken down, allowing new grains to form during the cooling process. After reaching the desired temperature, the steel strips are slowly cooled down. This slow cooling process, also known as controlled cooling or furnace cooling, is essential for achieving the desired ductility. It allows the newly formed grains to grow and align in a way that reduces internal stresses and promotes better ductility. The cooling rate during annealing is crucial as rapid cooling can lead to the formation of undesirable crystal structures and potentially reduce the ductility of the steel. Therefore, the cooling process is typically done in a controlled environment, such as a furnace, to ensure a gradual and uniform cooling rate. Overall, annealing steel strips for improved ductility involves heating them to a specific temperature above their recrystallization temperature and then slowly cooling them down. This process helps to eliminate internal stresses and promote the growth of new grains, resulting in improved ductility and better mechanical properties for the steel strips.

Q: How are steel strips used in the manufacturing of storage tanks?: The manufacturing of storage tanks commonly utilizes steel strips due to their strength, durability, and flexibility. These strips are the primary material for constructing the cylindrical body of the tank. To begin, the steel strips are cut into specific lengths and widths based on the desired size and capacity of the storage tank. They are then shaped into a cylindrical form and joined together through welding to form a seamless structure. This welding process ensures the tank is both leak-proof and capable of withstanding high pressure. The steel strips chosen for storage tank manufacturing are typically made from carbon steel, which offers excellent mechanical properties and resistance to corrosion. This is crucial in order to ensure the tank can withstand harsh conditions such as the storage of corrosive substances or extreme temperature variations. Furthermore, the flexibility of steel strips allows for the customization of storage tanks, giving manufacturers the ability to create tanks of varying sizes and shapes to meet specific storage requirements. Additionally, the steel strips are easy to transport and assemble on-site, making them a favored choice in the manufacturing industry. In conclusion, steel strips play a crucial role in the construction of storage tanks by providing strength, durability, and flexibility. This ensures the safe and efficient storage of various substances.

Q: Can steel strips be used in the production of agricultural equipment?: Yes, steel strips can be used in the production of agricultural equipment. Steel is a strong and durable material that can withstand the demanding conditions and heavy use that agricultural equipment often undergoes. Steel strips can be used for various purposes such as reinforcement, structural components, or even blades for machinery like harvesters or plows.

Q: What are the common surface defects found in steel strips?: Some common surface defects found in steel strips include scratches, pits, scale, rust, and laminations.

Q: How are steel strips processed for soldering?: Steel strips are processed for soldering through a series of steps to ensure proper adhesion and a strong bond. Firstly, the steel strips are cleaned thoroughly to remove any dirt, oil, or other contaminants that could interfere with the soldering process. This is usually done by using a degreasing agent or a solvent to ensure a clean surface. Next, the steel strips are typically roughened to create a more suitable surface for soldering. This can be done through various methods such as sanding, brushing, or using a chemical etching agent. The goal is to create small scratches or grooves on the surface, which provides more surface area for the solder to adhere to. After roughening, a flux is applied to the steel strips. The flux serves multiple purposes - it removes any remaining contaminants, prevents oxidation during the soldering process, and promotes the flow of solder. The flux can be in the form of a liquid or a paste and is usually applied using a brush or a dipping process. Once the flux is applied, the steel strips are ready for soldering. A soldering iron or a soldering machine is used to heat the strips and melt the solder. The solder is then applied to the joint or the desired area, where it flows and bonds with the steel strips. The heat from the soldering process should be carefully controlled to prevent overheating or damaging the steel strips. Finally, after soldering, the steel strips may undergo a cleaning process to remove any residual flux or soldering residues. This is typically done using a cleaning agent and can be followed by rinsing with water or using a solvent. The cleaned steel strips are then inspected for quality and can be further processed or used in various applications as required. Overall, the process of preparing steel strips for soldering involves cleaning, roughening, applying flux, soldering, and cleaning again. These steps ensure a clean, well-prepared surface for soldering and result in a strong and reliable bond between the steel strips.

Q: What is the fatigue strength of a steel strip?: The fatigue strength of a steel strip refers to its ability to withstand repeated loading and unloading cycles without failure. It is a measure of the strip's resistance to fatigue and is typically determined through fatigue testing.

Q: How are steel strips processed for stamping?: Steel strips are processed for stamping through a series of steps that involve cutting, blanking, and forming. Initially, the steel strips are unrolled from a coil and fed into a machine that cuts them into precise lengths. This cutting process ensures that each strip is of the desired size and shape for stamping. After cutting, the steel strips are then blanked, which involves removing any excess material around the edges. This is typically accomplished using a die, which is a specialized tool that cuts out the desired shape from the strip. The blanking process ensures that only the necessary material remains, reducing waste and improving efficiency. Once the strips are cut and blanked, they are ready for the stamping process. This involves placing the strip into a stamping press, which uses a die or a series of dies to shape the material. The press applies force to the strip, causing it to deform and take on the desired shape. The stamping process can include bending, drawing, or forming the steel strip, depending on the specific requirements of the final product. In some cases, additional steps may be required after stamping, such as heat treatment or surface finishing, to enhance the properties or appearance of the steel strips. These additional processes can improve the strength, hardness, or corrosion resistance of the material, as well as provide aesthetic enhancements. Overall, the processing of steel strips for stamping involves precision cutting, blanking, and forming, ensuring that the strips are of the correct size and shape for the intended application. This process is crucial in the manufacturing of various products, including automotive parts, appliances, and metal components.

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