• High Quality Wooden Pattern Printing Steel Plate-0.60mm*1000mm Z40g System 1
  • High Quality Wooden Pattern Printing Steel Plate-0.60mm*1000mm Z40g System 2
  • High Quality Wooden Pattern Printing Steel Plate-0.60mm*1000mm Z40g System 3
High Quality Wooden Pattern Printing Steel Plate-0.60mm*1000mm Z40g

High Quality Wooden Pattern Printing Steel Plate-0.60mm*1000mm Z40g

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Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
50 m.t.
Supply Capability:
5000 m.t./month

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High Quality Wooden Pattern Printing Steel Plate-0.60mm*1000mm Z40g 

1.Thickness:0.16-2.0mm 
2.Width:600-
1500mm

3.Material: SGCC,SGCD,SECC,SECD,DX51D+Z
4.Zinc coating:
40-275G/M2

5.Surface Structure:  galvanized ,zero spangle, regular spangle or normal spangle

6.Surface treatment:  chromated and oiled, chromated and non-oiled

7.Color:all RAL series

1.strong corrosion resistance

2.surface quality

3.conducive to deep processing,such as the embossed PPGI,printed PPGI&punching PPGI

4.economy and practicality

 

 1.Refrigerator shutter &side panels,  Washer,  Freezers, Air conditions,
 2.Rice Cooker, Microwave Ovens,  Water Heaters, Sterilization Cabinets, Range Hoods
 3.Computer Panels , DVD/DVB  panels, TV back panel etc.

  Teaching Board: whiteboard, blackboard, green board(chalk board).

  Indoor Decoration: Fireproof Door, kitchen cabinet, wall decoration.

  Shipping Industries: Ship, Fecht, Marine.


Q:How are steel strips inspected for dimensional accuracy?
Various techniques and tools are utilized to inspect steel strips for dimensional accuracy, ensuring they adhere to the necessary specifications. One commonly employed approach involves the use of precision measuring instruments, such as calipers or micrometers, to gauge the width, thickness, and length of the steel strip. By comparing these measurements to the specified tolerances, it can be determined whether the strip falls within the acceptable range. Another method involves the utilization of laser or optical scanning systems, which possess the ability to swiftly and accurately measure the strip's dimensions. These systems scan the entire strip's surface, generating a digital representation that is subsequently analyzed to identify any deviations from the required dimensions. Moreover, non-contact techniques, such as laser profilometry or 3D scanning, can be implemented to inspect the strip's surface profile and ensure its compliance with dimensional requirements. These methods offer a comprehensive analysis of the strip's surface, capable of detecting any irregularities or deviations from the desired dimensions. Additionally, automated vision systems can be employed to examine steel strips for dimensional accuracy. These systems employ cameras and image processing algorithms to capture images of the strip, subsequently analyzing them for any discrepancies in dimensions. The software compares the obtained measurements with the specified tolerances, determining whether the strip falls within acceptable limits. In summary, steel strips are inspected for dimensional accuracy by utilizing a combination of direct measurements, digital scanning, and automated vision systems. These techniques play a vital role in maintaining quality control throughout the manufacturing process, ensuring that the final product meets the necessary specifications.
Q:How are steel strips plasma cut?
Steel strips can be plasma cut using a specialized cutting technique that involves the use of a high-temperature plasma arc. The process starts by creating an electrical circuit between the plasma cutter and the steel strip. This circuit allows for the generation of a high-velocity jet of ionized gas, also known as plasma. As the plasma comes into contact with the steel strip, it rapidly heats up the metal and melts it away. Simultaneously, a high-velocity jet of gas blows away the molten metal, creating a clean and precise cut. The plasma cutter is guided along the desired path, following a pre-programmed pattern or the operator's instructions, to accurately shape the steel strip. The speed and intensity of the plasma arc can be adjusted based on the thickness and composition of the steel strip, ensuring an efficient and accurate cutting process. Overall, plasma cutting is a versatile and widely-used method for cutting steel strips due to its ability to produce clean, precise cuts and its suitability for a variety of thicknesses and steel grades.
Q:Are steel strips used in the medical industry?
Yes, steel strips are used in the medical industry. Steel strips, also known as stainless steel strips, have various applications in the medical field. They are commonly used in the manufacturing of medical devices, surgical instruments, and implants. Stainless steel strips offer several advantages such as high strength, corrosion resistance, and biocompatibility, making them suitable for use in the medical industry. These strips are often used to create precision components that require durability and cleanliness, ensuring the safety and effectiveness of medical equipment. Additionally, stainless steel strips can be easily sterilized, making them ideal for use in healthcare settings. Overall, steel strips play a crucial role in the medical industry and contribute to the development of innovative medical technologies and treatments.
Q:What are the different corrosion prevention techniques for steel strips?
There are several corrosion prevention techniques for steel strips, including the use of protective coatings, such as paints or zinc coatings, which act as a barrier between the steel and the corrosive environment. Another technique is the application of corrosion inhibitors, which are chemicals that can be applied to the steel surface to inhibit the corrosion process. Additionally, proper storage and handling practices, such as keeping the steel strips in a dry environment and minimizing exposure to moisture or corrosive substances, can also help prevent corrosion.
Q:What are the specifications for steel strips used in the production of air conditioning components?
The production of air conditioning components utilizes steel strips with varying specifications, which are dependent on the manufacturer's specific requirements and the intended application. However, there are several common specifications that are frequently taken into consideration: 1. Material: High-quality steel is typically used for the strips, possessing specific properties such as excellent corrosion resistance, high strength, and good formability. Common types include stainless steel, galvanized steel, or carbon steel. 2. Thickness: The thickness of the steel strips may differ based on the specific component being produced, and it is commonly specified in terms of gauge or millimeters (mm). Thinner strips are suitable for lightweight components, while thicker ones may be necessary for structural integrity. 3. Width: The width of the steel strip is an important specification and is determined by the dimensions of the component it will be used for. It is typically measured in millimeters (mm) or inches. 4. Surface Finish: The surface finish of the steel strip is crucial for both aesthetic and functional purposes. It should possess a smooth and clean surface to ensure proper adhesion of coatings or other necessary materials. 5. Tolerance: The tolerance level for the dimensions of the steel strip is critical to ensure proper fit and functionality of the air conditioning components. It is typically specified as a range or maximum deviation from the desired dimensions. 6. Mechanical Properties: The mechanical properties of the steel strip, including tensile strength, yield strength, and elongation, are significant factors to consider. These properties determine the strip's ability to withstand the stresses and loads during production and subsequent operation of the air conditioning components. 7. Coating or Plating: Depending on specific requirements, the steel strips may require coating or plating with materials like zinc, aluminum, or other corrosion-resistant coatings. This enhances their durability and resistance to environmental factors. In conclusion, the specifications for steel strips used in the production of air conditioning components can vary based on the manufacturer's needs and the intended application. It is essential to consult the manufacturer's guidelines or communicate with suppliers to ensure that the steel strips meet the necessary specifications for optimal performance and durability of the air conditioning components.
Q:How do steel strips perform in electrical circuits?
Steel strips do not perform well in electrical circuits as they have high resistance, which leads to significant energy losses and poor conductivity.
Q:How are steel strips stored to prevent contamination?
Steel strips are typically stored in a clean and dry environment, away from potential sources of contamination such as dust, moisture, and chemicals. They are often wrapped in protective materials or placed in sealed containers to ensure their integrity. Additionally, storage areas are usually kept organized and free of debris to minimize the risk of contamination.
Q:What is the density of a steel strip?
The density of a steel strip can vary depending on the specific type of steel being used. However, on average, the density of steel is around 7.85 grams per cubic centimeter (g/cm³). This means that for every cubic centimeter of steel, it weighs approximately 7.85 grams. It is important to note that the density of steel can also be affected by factors such as temperature and impurities in the steel composition. Therefore, it is always recommended to consult the specific specifications or material data sheet provided by the steel manufacturer for the most accurate density value.
Q:How are steel strips polished for aesthetic purposes?
To achieve an aesthetically pleasing polish on steel strips, a multi-step process utilizing various techniques is employed. The initial step involves a thorough cleaning of the strip to eliminate any dirt, grease, or contaminants, which can be accomplished using a solvent or degreaser. Subsequently, the strip is subject to sanding, employing progressively finer grits of sandpaper or abrasive pads. This aids in the elimination of surface imperfections, scratches, and rough areas, with the objective of attaining a smooth and uniform surface. Following the sanding phase, the strip undergoes a buffing procedure. Buffing entails the utilization of a rotating wheel or polishing machine equipped with a soft cloth or buffing pad. The wheel or pad is coated with a polishing compound, available in the form of paste, liquid, or powder. This compound assists in the eradication of any remaining scratches and imparts a lustrous shine to the steel strip. The level of polish desired dictates the need for multiple buffing stages, incorporating different compounds possessing varying levels of abrasiveness. It may also necessitate the use of diverse types of wheels or pads, each specifically designed for distinct polishing requirements. Once the desired level of polish is achieved, the strip is meticulously cleaned once more to eliminate any residue from the polishing compounds. This ensures a pristine and sleek finish. Lastly, the strip may be subjected to additional treatments, such as electroplating or coating, to enhance its aesthetic appeal and provide protection against corrosion. In summary, the process of polishing steel strips for aesthetic purposes encompasses a combination of cleaning, sanding, buffing, and finishing, resulting in a smooth, radiant, and visually captivating surface.
Q:What are the different types of heat treatments for steel strips?
There are several types of heat treatments for steel strips, including annealing, quenching, tempering, and case hardening. Annealing involves heating the steel to a high temperature and slowly cooling it to relieve internal stresses and improve its ductility. Quenching rapidly cools the steel to increase its hardness and strength. Tempering is a process that follows quenching to reduce the brittleness of the steel and improve its toughness. Case hardening involves adding a hard outer layer to the steel while keeping the core soft and ductile.

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