• Galvanized Steel Strip with High Quality-SGC340 600*2.5mm System 1
  • Galvanized Steel Strip with High Quality-SGC340 600*2.5mm System 2
  • Galvanized Steel Strip with High Quality-SGC340 600*2.5mm System 3
Galvanized Steel Strip with High Quality-SGC340 600*2.5mm

Galvanized Steel Strip with High Quality-SGC340 600*2.5mm

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Loading Port:
China main port
Payment Terms:
TT OR LC
Min Order Qty:
50 m.t
Supply Capability:
10000 m.t/month

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Galvanized Steel Strip with High Quality-SGC340 600*2.5mm:

Product Description:

Specifications:

1. Thickness: 2.5mm

2. Width: 600mm

3. Material: SGC340

4. ID: 508mm or 610mm

5. Spangle: Regular spangle or zero spangle

6. Surface treatment: chromated or no chromated; oiled or no oiled.


Advantages of Galvanized Steel Strip with High Quality-SGC340 600*2.5mm:

1. Uniform coating;

2. Strong adhesion;

3. Strong corrosion resistant ability


Usage of Galvanized Steel Strip with High Quality-SGC340 600*2.5mm:

1. Making pipes, like Greenhouse tubes, drinking water pipe, heating pipe, gas pipe and so on;

2. Used in automobile;

3. Used in construction;

4. Used in agriculture, fishery and so on.


FAQ of Galvanized Steel Strip with High Quality-SGC340 600*2.5mm:

Q1: How soon can we receive the product after purchasement?

A1: Within three days of placing an order, we will begin production. The specific shipping date is dependent upon international and government factors, but is typically one month-two months.

Q2: How do you guarantee the quality of our products?

A2: We have established an advanced quality management system which conducts strict quality tests at every step, from raw materials to the final product. At the same time, we provide extensive follow-up service assurances as required.

Q3: The prices are invoicing on theoritical weight or on actual weight?

A3: We can do it in both manners, according to the customers' request.

 

Images of Galvanized Steel Strip with High Quality-SGC340 600*2.5mm:

SGC340 600*2.5mm

SGC340 600*2.5mm


*If you would like to get our price, please kindly inform us the standard/material, specifications and quantity. Thank you very much for your attention.

Q:What are the dimensional inspection methods for steel strips?
There are several dimensional inspection methods commonly used for steel strips. These methods are employed to ensure the accuracy and conformity of the dimensions of the steel strips to the specified standards. Some of the commonly used dimensional inspection methods for steel strips include: 1. Calipers: Calipers are used to measure the thickness, width, and length of the steel strips. They provide accurate measurements by directly comparing the dimensions of the steel strip with the calibrated scale on the caliper. 2. Micrometers: Micrometers are precision instruments used to measure the thickness and width of steel strips with high accuracy. They can measure dimensions up to the micrometer level, ensuring precise measurements. 3. Optical comparator: Optical comparators use magnification and illumination to compare the dimensions of the steel strip with a reference standard. This method enables visual inspection and measurement of various dimensions, such as width, length, and shape. 4. Laser measurement: Laser measurement systems utilize laser beams to measure the dimensions of steel strips accurately. They can provide non-contact measurements of width, thickness, and other dimensions, ensuring high precision and speed. 5. Coordinate measuring machine (CMM): CMM is a highly precise and automated dimensional inspection method. It uses a probe to measure multiple dimensions of the steel strip, including length, width, thickness, and even complex geometries. CMMs provide highly accurate measurements and are suitable for inspection of various steel strip profiles. 6. Vision systems: Vision systems use cameras and image processing algorithms to inspect the dimensions of steel strips. They can measure dimensions such as width, length, and thickness, and can also detect surface defects or irregularities. These dimensional inspection methods are often used in combination to obtain comprehensive and accurate measurements of steel strips. The selection of the appropriate method depends on the specific requirements, accuracy needed, and the type of steel strip being inspected.
Q:How are steel strips used in the production of automotive chassis components?
Steel strips are commonly used in the production of automotive chassis components due to their strength, durability, and versatility. These strips are shaped and welded together to form the framework of the vehicle, providing structural support and ensuring the safety and stability of the chassis. Additionally, steel strips can be easily manipulated and formed into various shapes, allowing for the customization of chassis components to meet specific design requirements.
Q:What are the different surface defects found in steel strips?
Steel strips can exhibit several surface defects, including scale, roll marks, scratches, pits, edge cracks, and surface contamination. Scale, an oxide that forms at high temperatures, appears as a flaky layer that can impact the steel's appearance and quality. Roll marks, caused by irregularities on the rolls used during manufacturing, create raised or depressed areas that affect flatness and appearance. Scratches, resulting from mechanical damage during handling or transportation, vary in size and depth and can impact appearance and integrity. Pits, small depressions or cavities, occur due to corrosion, handling damage, or manufacturing defects and affect appearance and structural integrity. Edge cracks, caused by improper handling, overloading, or manufacturing defects, weaken the steel's strength and integrity. Surface contamination, such as oil, grease, dirt, or paint, diminishes surface quality and may lead to corrosion or other damage. Detecting and addressing these defects is crucial to ensure the steel's quality and performance. Inspection methods like visual inspection, non-destructive testing, and surface treatment techniques are employed to identify and rectify these defects before using the steel in various applications.
Q:Are steel strips suitable for making automotive exhaust systems?
Automotive exhaust systems can be made using steel strips, which are highly suitable for this purpose. Steel is extensively utilized in the automotive industry owing to its remarkable properties, such as its strength, durability, and exceptional heat resistance. When it comes to shaping and forming, steel strips can effortlessly be adjusted to meet the necessary dimensions and endure the demanding conditions associated with exhaust systems, including high temperatures, vibrations, and corrosion. Moreover, these strips can be coated or treated to enhance their resistance to corrosion and prolong their lifespan, particularly in harsh environments. In conclusion, steel strips offer an economical and dependable solution for the production of automotive exhaust systems.
Q:Can steel strips be used for making agricultural machinery?
Indeed, agricultural machinery can indeed be crafted using steel strips. Given its robustness, longevity, and ability to resist deterioration, steel is a widely employed material in the production of agricultural machinery. Steel strips can be skillfully manipulated, fused, and molded into diverse components utilized in agricultural machinery, including plows, harrows, cultivators, seeders, and planters. Furthermore, for enhanced resistance against corrosion, steel strips can be galvanized, rendering them ideal for deployment in outdoor agricultural settings. On the whole, steel strips possess the essential attributes to endure the arduous conditions and rigorous utilization commonly linked with agricultural machinery.
Q:How are steel strips processed for brazing?
Steel strips are processed for brazing through a series of steps to ensure a strong and durable bond. First, the steel strips are cleaned thoroughly to remove any dirt, oil, or oxidation. This is typically done using chemical cleaners or through mechanical cleaning methods such as abrasive blasting. After cleaning, the steel strips are then coated with a flux, which is a chemical compound that helps to prevent oxidation during the brazing process. The flux is applied either by dipping the strips into a flux bath or by spraying it onto the surfaces. Once the flux is applied, the steel strips are assembled into the desired configuration, with any necessary filler material or components in place. This assembly is then tightly clamped or fixtured to ensure proper alignment during the brazing process. The brazing process itself involves heating the steel strips and filler material to a specific temperature until the filler metal melts and flows into the joint. This is typically done using a furnace or torch, depending on the size and complexity of the assembly. Once the brazing temperature is reached, the steel strips are held at that temperature for a specific amount of time to allow for proper bonding. This time can vary depending on the thickness and composition of the steel strips. After the brazing process is complete, the steel strips are allowed to cool slowly to prevent any thermal stresses or distortion. Once cooled, the assembly is inspected for any defects or imperfections, and any necessary post-braze operations such as cleaning or machining are performed. Overall, the process of brazing steel strips involves careful cleaning, flux application, precise assembly, controlled heating, and thorough inspection to ensure a high-quality bond.
Q:How are steel strips heat-treated for improved properties?
Steel strips can undergo heat treatment processes to improve their properties. The most common methods used for heat treating steel strips are annealing, quenching, and tempering. Annealing is the process of heating the steel strips to a specific temperature and then slowly cooling them down. This process helps to relieve internal stresses, improve ductility, and refine the grain structure in the steel. By heating the steel to a temperature below its critical point, the atoms in the steel rearrange themselves, resulting in a more uniform and softer material. Annealing also helps to increase machinability and reduce hardness, making the steel strips easier to work with. Quenching is another important heat treatment process for steel strips. It involves rapidly cooling the steel strips by immersing them in a quenching medium, such as water, oil, or air. This rapid cooling prevents the formation of large grains and promotes the formation of a harder and stronger material. Quenching can significantly increase the hardness, strength, and wear resistance of steel strips. However, this process may also lead to increased brittleness, so it is often followed by tempering. Tempering is the final step in the heat treatment process and is used to reduce the brittleness caused by quenching. During tempering, the steel strips are reheated to a specific temperature and then slowly cooled. This process helps to relieve internal stresses and increase toughness in the steel. Tempering can also help to improve the steel's resistance to cracking and enhance its overall mechanical properties. The exact temperature and duration of tempering depend on the desired properties of the steel strips. Overall, heat treatment processes such as annealing, quenching, and tempering can significantly improve the properties of steel strips. These processes can enhance the steel's strength, hardness, toughness, and machinability, making it more suitable for various applications in industries such as automotive, construction, and manufacturing.
Q:How are steel strips processed for fire resistance?
There are several methods available for processing steel strips to enhance their fire resistance. One commonly used approach involves applying a fire-resistant coating onto the surface of the strip. This coating serves as a protective barrier, capable of withstanding high temperatures and preventing the steel from reaching its critical temperature, which is the temperature at which it loses its structural integrity. Various techniques, including spray coating, dip coating, and electrostatic deposition, can be employed to apply the fire-resistant coating. Another method to enhance the fire resistance of steel strips involves the use of intumescent coatings. These coatings are designed to expand when exposed to high temperatures, creating a thick and insulating layer that acts as a shield against heat transfer. Intumescent coatings can be applied in the form of paint or a thin film on the surface of the steel strip. Fire-resistant insulation materials offer an additional means of enhancing the fire resistance of steel strips. These materials are applied to the strip to provide extra insulation and protection against heat. Examples of insulation materials include mineral wool, ceramic fiber, and vermiculite boards, all of which possess excellent fire resistance properties. It is crucial to consider that the specific process for enhancing the fire resistance of steel strips may vary depending on the intended application and the desired level of fire protection. Therefore, consulting with experts in the field of fire protection is essential to determine the most suitable method of processing steel strips for fire resistance in a particular scenario.
Q:How are steel strips processed for polishing?
To achieve a polished surface, steel strips undergo a series of steps involving both mechanical and chemical processes. Typically, the initial step is thorough cleaning, where the strips are washed meticulously to eliminate any contaminants like dirt or grease. Alkaline or acidic solutions are commonly used for this purpose, followed by rinsing with water. Once the cleaning process is complete, the strips are dried to ensure that they are free from moisture before proceeding to the next step. After drying, the strips undergo mechanical polishing, which entails using abrasive materials to smoothen the surface. This can be accomplished manually with handheld tools or through automated machinery. The choice of abrasive materials for polishing depends on the desired finish and the type of steel being processed. Commonly used abrasives include sandpaper, polishing compounds, and diamond pastes, each offering varying levels of abrasiveness. During mechanical polishing, the steel strips are rubbed against the abrasive material in a back-and-forth motion, progressively eliminating small imperfections, scratches, and blemishes from the surface. This ensures uniform polishing across the entire length. In some cases, chemical polishing is employed to enhance the polishing process. This involves utilizing chemical solutions that can dissolve a thin layer of the steel's surface to achieve a smoother finish. The chemical solutions used are typically acidic or alkaline, and the duration of exposure is carefully controlled to prevent over-polishing or damage to the steel. Once the desired level of polishing is achieved, the steel strips undergo another thorough cleaning to remove any residue from the polishing process. Water or a mild detergent solution is typically used for this purpose. Depending on the intended use, the strips may then be dried or subjected to additional treatments like coating or plating. In summary, polishing steel strips involves a combination of cleaning, mechanical polishing with abrasive materials, and potentially chemical polishing. These processes enhance the appearance and functionality of the steel strips for various applications.
Q:Are steel strips used in the production of automotive steering components?
Steel strips are a common choice for producing automotive steering components. They are frequently utilized to construct the structural framework of various steering parts like tie rods, control arms, and steering shafts. Typically, these strips are manufactured from high-strength steel alloys, which grant them the required durability and tensile strength to endure the forces and stresses encountered during vehicle operation. The preference for steel strips in steering component production stems from their outstanding strength-to-weight ratio, resistance to corrosion, and their capability to be shaped into intricate forms. All in all, steel strips play a crucial role in guaranteeing the dependability and performance of automotive steering systems.

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