Stainless Steel Sheet SS 201/304/316/304L/316L/309S/310S/430

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Loading Port:
China main port
Payment Terms:
TT or LC
Min Order Qty:
50 m.t.
Supply Capability:
1000 m.t./month
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1.Structure of Stainless Steel Sheet Description

 

The surface brightness and flatness of no2B is better than no2D. then through a special

surface treatment to improve its mechanical properties,No2B could nearly satisfy comprehensive uses.


2.Main Features of the Stainless Steel Sheet

 

• Hardness (HB): ≤ 187

• Tensile strength (Mpa): ≥ 520

• Yield strength (Mpa): ≥ 205

• Elongation %: ≥ 40

• Reduction in area %: ≥ 50

• Recommended heat Treatment: 1030 ' C -1180 ' C

3. Stainless Steel Sheet Images

 


Stainless Steel Sheet SS 201/304/316/304L/316L/309S/310S/430

Stainless Steel Sheet SS 201/304/316/304L/316L/309S/310S/430


4. Stainless Steel Sheet Specification

 

Grade:

200series.300series.

Standard:

JIS,AISI,ASTM

Length:

as request

Thickness:

0.3-3mm

Width:

30-2000mm

Place of Origin:

Shanxi China (Mainland)

Brand Name:

CNBM

Model Number:

ss201/304/316/304L/316L/309S/310S/430

Type:

Plate

Application:

hardware, foodstuff, manufacture, medic

Certification:

SGS

Item:

ss202/304/316/309s/310/410/420 stainless steel sheet

Packaging:

Export standard package or as your requirement

Delivery:

In 15 days

Stock:

Available


5.FAQ of Stainless Steel Sheet

 

①Who are you?

 

We are the manufacturer! We produce stainless steel products

with high quality & very competitive price!Please feel free to

contact us for more information!

 

②How long can we receive the product after purchase?

In the purchase of product within three working days, We will arrange the factory delivery as soon as possible. The pecific time of receiving is related to the state and position of customers.Commonly 7 to 10 working days can be served.

 

③How about your company?

A world class manufacturer & supplier of castings forging in Stainless Steel Sheet,is one of the large-scale professional investment casting production bases in China,consisting of both casting foundry forging and machining factory. Annually more than 8000 tons Precision casting and forging parts are exported to markets in Europe,America and Japan. OEM casting and forging service available according to customer’s requirements.

Q:
Various processes, including bending, rolling, stamping, and forming, enable steel strips to be transformed into intricate shapes. Steel, as a versatile material, can be manipulated to meet the specific requirements of different applications in terms of shape and size. Through the utilization of specialized machinery and tools, steel strips can be curved, twisted, and shaped into complex designs. These formed steel strips find extensive use in industries such as automotive, aerospace, construction, and manufacturing, where intricate shapes are frequently necessary for various components and structures. The ability of steel strips to assume complex shapes renders them an invaluable asset in contemporary engineering and design.
Q:
The typical industries that use steel strips include automotive, construction, manufacturing, aerospace, electrical, and packaging.
Q:
There are several effective cleaning methods used for steel strips, depending on the specific type of contamination and desired level of cleanliness. Here are some common cleaning methods used: 1. Mechanical Cleaning: This method involves using mechanical abrasion techniques such as brushing, scrubbing, or sanding to physically remove dirt, grease, or other contaminants from the surface of the steel strips. Mechanical cleaning is effective for removing heavy deposits or rust that may be present on the strips. 2. Chemical Cleaning: Chemical cleaning involves using various cleaning agents such as solvents, alkaline solutions, or acidic solutions to dissolve or loosen dirt, grease, or other contaminants from the steel strip's surface. This method is particularly useful for removing organic residues or light surface contamination. 3. Electrolytic Cleaning: This method utilizes an electrolyte solution and an electrical current to remove contaminants from steel strips. Through the process of electrolysis, the electrical current causes the contaminants to detach from the surface and migrate to a separate anode or cathode, leaving the steel strip clean. 4. Ultrasonic Cleaning: This method involves immersing the steel strips in a tank of liquid cleaning solution and subjecting them to high-frequency ultrasonic waves. These waves create microscopic bubbles that implode, generating intense cleaning action and effectively removing dirt, oil, or other contaminants from the surface of the strips. 5. Pickling: Pickling is a chemical cleaning method where the steel strips are immersed in an acid solution, typically a mixture of hydrochloric acid and sulfuric acid. The acid removes any oxide scale, rust, or other surface impurities from the steel, resulting in a clean and smooth surface. 6. Steam Cleaning: Steam cleaning is an efficient method that uses high-pressure steam to clean steel strips. The steam's heat and pressure effectively remove dirt, oil, or other contaminants from the surface, leaving the strips clean and sanitized. It is important to select the appropriate cleaning method based on the nature of the contamination, the type of steel strip, and the desired level of cleanliness to ensure optimal results and prevent any damage to the strips.
Q:
Yes, steel strips can be welded or soldered. Welding involves melting the steel strips together using high temperatures and a filler material, creating a strong bond. Soldering, on the other hand, uses a lower temperature and a filler metal with a lower melting point to join the steel strips. Both processes can be used to join steel strips securely, depending on the specific requirements and applications.
Q:
There are multiple techniques available for punching steel strips, depending on the specific needs and desired results. Some of the most commonly used methods are: 1. Mechanical punching: To create holes or shapes in the steel strip, a mechanical press or punch press machine is utilized. The material is cut through by applying force to a punch and die set. Mechanical punching is ideal for large-scale production runs and provides accurate and consistent outcomes. 2. Hydraulic punching: Hydraulic power is employed to drive the punch through the steel strip. This method is often chosen for heavier gauge materials or when greater force is necessary. Hydraulic punching is known for its ability to create larger holes and shapes in the steel strip. 3. Laser cutting: Laser cutting is a contactless technique that employs a high-powered laser beam to quickly and precisely cut through the steel strip. This method offers great flexibility in terms of shapes and sizes, allowing for intricate designs with high accuracy. Laser cutting is often preferred when complex patterns or curves are required. 4. Plasma cutting: Plasma cutting involves using a plasma torch to slice through the steel strip. The torch generates a high-temperature plasma arc that melts and removes the material, forming the desired shape. Plasma cutting is commonly used for thicker steel strips and can achieve high cutting speeds. 5. Waterjet cutting: Waterjet cutting employs a high-pressure jet of water mixed with abrasive material to cut through the steel strip. This method is suitable for various materials, including steel, and is known for its ability to create precise and clean cuts without heat-affected zones. Waterjet cutting is particularly useful for cutting materials that are sensitive to heat or prone to distortion. Each method has its own advantages and considerations, such as cost, speed, precision, and suitability for specific steel strip thicknesses and shapes. The choice of method will depend on the specific requirements of the project and the desired outcome.
Q:
Steel strips handle exposure to moisture by forming a protective layer of iron oxide, also known as rust, which acts as a barrier against further corrosion. However, if not properly protected or maintained, prolonged exposure to moisture can eventually lead to rusting and degradation of the steel strips.
Q:
Steel strips are typically measured for thickness using a specialized tool called a micrometer or a thickness gauge. These instruments allow precise and accurate measurements by applying pressure to the strip and providing a digital or analog readout of its thickness.
Q:
The chemical resistance of various applications is enhanced by the use of steel strips, thanks to their inherent properties and protective coatings. Firstly, steel is renowned for its incredible strength and durability, thus rendering it suitable for handling harsh chemicals. It can endure mechanical stress and preserve its structural integrity, even in aggressive surroundings. Moreover, steel strips can be coated with a variety of materials to enhance their chemical resistance. One common coating method is galvanization, which involves applying a layer of zinc to the steel. This zinc layer acts as a sacrificial barrier, shielding the underlying steel from corrosion caused by chemicals. Another option for coating is the use of polymeric coatings, which provide a barrier against chemical attacks and can be customized to suit specific applications. Furthermore, steel strips can be designed with specific alloy compositions to improve their chemical resistance. For instance, stainless steel strips contain chromium, which forms a passive oxide layer on the surface. This protective layer prevents corrosion and offers resistance against a wide range of chemicals. Steel strips play a vital role in various industries where chemical resistance is paramount. In the chemical processing industry, they are utilized in equipment such as tanks, pipes, and valves, which must withstand corrosive substances. The automotive industry also relies on steel strips for components that come into contact with fuels, oils, and various chemicals. Additionally, the construction industry utilizes them for structures exposed to aggressive environments, such as bridges and offshore platforms. In conclusion, steel strips contribute to chemical resistance in diverse applications due to their inherent properties, protective coatings, and alloy compositions. They provide strength, durability, and resistance against corrosion, making them indispensable in industries concerned with exposure to harsh chemicals.
Q:
The maximum width of steel strips has the potential to fluctuate based on various factors, including the manufacturing process and the capabilities of the equipment utilized. Nevertheless, in broad terms, the width of steel strips can span from a few inches to numerous feet. The precise measurements shall be contingent upon the particular demands of the industry or application in which the steel strips are employed.
Q:
The common thickness variations in steel strips can vary depending on the specific industry and application. However, in general, steel strips are typically manufactured with a tolerance range for thickness to account for variations during the production process. The most common thickness variations in steel strips are typically measured in terms of the gauge or thickness range. The gauge of a steel strip refers to its thickness, with lower gauge numbers indicating thicker strips and higher gauge numbers indicating thinner strips. For example, in the automotive industry, steel strips used for structural components may have a thickness variation tolerance of ±0.005 inches (0.13 mm) or less. This ensures that the strips meet the required strength and performance specifications while maintaining consistency in the manufacturing process. In other industries, such as construction or manufacturing, steel strips may have slightly larger thickness variations depending on the application. Thickness variations in these cases can range from ±0.010 inches (0.25 mm) to ±0.020 inches (0.51 mm) or more, depending on the specific requirements of the project. It is important to note that these thickness variations are carefully controlled and specified by industry standards and regulations. Manufacturers use advanced technology and quality control measures to ensure that steel strips are produced within the required tolerance range to meet the desired specifications. Overall, while there may be some slight thickness variations in steel strips, they are typically controlled within specific tolerance ranges to ensure consistency, quality, and performance in various applications.

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