• 304 Stainless Steel Sheet/Stainless Steel Plate System 1
  • 304 Stainless Steel Sheet/Stainless Steel Plate System 2
  • 304 Stainless Steel Sheet/Stainless Steel Plate System 3
304 Stainless Steel Sheet/Stainless Steel Plate

304 Stainless Steel Sheet/Stainless Steel Plate

Ref Price:
get latest price
Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
5 m.t.
Supply Capability:
500 m.t./month

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Specification

Standard:
AISI,JIS,GB,DIN,EN,ASTM
Technique:
Cold Rolled,Cold Drawn,ERW
Shape:
Rectangular
Surface Treatment:
Coated,Dry,Chromed Passivation,Polished
Steel Grade:
Q195,Q215,Q235,Q215B,Q235B,HRB400
Certification:
ISO,SGS,BV,IBR,RoHS,CE,API,BSI,UL
Thickness:
0.15
Length:
1200
Net Weight:
0.5MT

Product  Brief  Introduction

 

304/410/409/430/202/201 STAINLESS STEEL PLATE

---Stainless steel plate applies to construction field, ships building industry, petroleum,

chemical industries, war and electricity industries, food processing and medical industry,

boiler heat exchanger,machinery and hardware fields. 

Product Features

 

. Traditional aesthetics outlook 
. Suitable for new house or renovation.
. Less joints, watertight
. Long life service
. Tedun also provide relative ridge cap, fasteners and other accessories

Product Specification 

Standard:ASTM, GB,JIS,JIS G3302 ASTM 755 EN10169

Grade: 304/410/409/430/202/201

Thickness: 0.15mm~3.0mm,

Width: 1250,600-1250mm

Chemical composition:

C

Si

Mn

Cr

Ni

P

S

0.150

0.476

11.231

12.50

0.900

0.039

0.010

 

 

 

FAQ

 

1.    How long will we receive the goods ?

45days after receiving workable L/C

 

1.    how do you control the quality ?

we have our own quality control department ,we will arrange QC person  to see the production line ,when goods finish ,before shipment ,our QC person will check the quality as per our test report request ,if the goods is ok ,then we issue the test report ,and we allow the goods shipping ,otherwise will not allow ship the goods.

 

304 Stainless Steel Sheet/Stainless Steel Plate 

Q: How are steel strips used in the production of electrical transformers?
Steel strips are an essential component in the production of electrical transformers. These strips are used to create the core of the transformer, which is responsible for transferring electrical energy from one circuit to another. The steel strips are typically made of high-quality electrical steel, also known as transformer steel or silicon steel. This type of steel has specific magnetic properties that make it ideal for transformer cores. It has low core loss and high magnetic permeability, allowing for efficient energy transfer. To construct the core, multiple steel strips are stacked together, forming a laminated structure. The laminations are tightly bound together using insulating materials to reduce eddy current losses and increase the efficiency of the transformer. The insulating materials prevent the flow of electric currents within the core, ensuring that the energy is directed to the intended circuit. The steel strips used in transformer cores also undergo a process called annealing, which involves heating the material to a specific temperature and then cooling it slowly. This process helps to align the magnetic domains within the steel, reducing the core losses and further improving the efficiency of the transformer. In addition to their magnetic properties, steel strips provide mechanical strength and stability to the transformer core. They help to maintain the overall shape of the core and prevent deformation or damage during operation. Overall, steel strips play a crucial role in the production of electrical transformers by providing the core material with the necessary magnetic properties, electrical insulation, and mechanical strength. Their efficient design and construction contribute to the reliable and efficient functioning of transformers, which are essential for the distribution and transmission of electrical energy.
Q: How are steel strips processed for waterjet cutting?
Precision and accuracy are ensured in the waterjet cutting process of steel strips through a series of steps. Initially, the surfaces of the steel strips are cleaned and prepared by eliminating any dirt, debris, or rust. The objective is to establish a clean and smooth cutting surface. Once the cleaning process is completed, the steel strips are placed onto a waterjet cutting machine. This machine is equipped with a high-pressure waterjet nozzle that expels a stream of water combined with an abrasive material, typically garnet, at incredibly high speeds. The waterjet possesses the capability of cutting the steel strips with exceptional precision. Prior to commencing the actual cutting process, the waterjet cutting machine is programmed with specific cutting parameters. These parameters encompass the desired dimensions, shapes, and angles of the steel strips. By using specialized software, the machine operator inputs these parameters, which are then translated into instructions for the waterjet cutting machine. When the cutting parameters have been set, the machine operator initiates the cutting process. The high-pressure waterjet is directed onto the steel strip, successfully cutting through it with extreme accuracy. The waterjet has the capacity to cut through steel of various thicknesses, ranging from thin strips to thicker plates, depending on the capabilities of the machine. Throughout the cutting process, continuous monitoring of the waterjet ensures that the desired dimensions and shapes are being attained. If necessary, the machine operator may make adjustments to the cutting parameters in order to maintain accuracy. Upon completion of the waterjet cutting, the steel strips are meticulously extracted from the machine. Additional processing, such as deburring or sanding, may be conducted to guarantee a smooth and refined edge. In conclusion, the process of waterjet cutting steel strips encompasses the cleaning and preparation of the strips, programming the cutting parameters, and utilizing a high-pressure waterjet for precise cutting of the steel. This method is renowned for its accuracy, versatility, and ability to cut through steel of varying thicknesses.
Q: Can steel strips be used for making surgical implants?
Yes, steel strips can be used for making surgical implants. Steel is a commonly used material for surgical implants due to its strength, durability, and biocompatibility. Surgical implants made from steel strips are often used in orthopedic procedures such as bone fixation, joint replacements, and spinal surgeries. The steel strips used for making surgical implants are typically made from stainless steel, which is corrosion-resistant and less likely to cause adverse reactions in the body. Additionally, steel strips can be easily shaped and manipulated to create the desired implant design, making them a versatile option for surgical implant manufacturing. However, it is important to note that the specific type of steel, its composition, and manufacturing processes must meet strict medical and regulatory standards to ensure the safety and effectiveness of the surgical implants.
Q: How are steel strips used in the production of stampings?
Steel strips are commonly used in the production of stampings due to their strength, durability, and flexibility. These strips are typically made from various types of steel, such as carbon steel or stainless steel, and come in different thicknesses. In the production process, steel strips are fed into stamping machines, which are equipped with dies or molds. The strips are then shaped or formed into the desired shape or design by the stamping machine. This process can include bending, cutting, punching, or deep drawing, depending on the specific requirements of the stamping. The use of steel strips in stamping offers numerous advantages. Firstly, steel is a strong material, allowing for the production of robust and sturdy stampings that can withstand various forces or pressures. Additionally, steel strips can be easily manipulated and shaped to create intricate and precise stampings, making them suitable for a wide range of applications. Moreover, steel strips provide excellent resistance to corrosion, rust, and wear, making the resulting stampings highly durable and long-lasting. This is particularly important in industries such as automotive, aerospace, or construction, where stampings are subjected to harsh environmental conditions or heavy use. Lastly, steel strips are readily available and cost-effective compared to other materials, making them a popular choice for mass production of stampings. Manufacturers can efficiently produce large quantities of stampings using steel strips, contributing to cost savings and increased productivity. In conclusion, steel strips play a crucial role in the production of stampings. Their strength, durability, flexibility, and cost-effectiveness make them an ideal material for creating high-quality stampings used in various industries.
Q: Can steel strips be used in automotive stamping?
Yes, steel strips can be used in automotive stamping. They are commonly used as a raw material for creating various automotive parts through the stamping process, such as body panels, chassis components, and structural reinforcements. Steel strips offer high strength and durability, allowing them to withstand the stamping process and provide the necessary structural integrity for automotive applications.
Q: What are the specifications for steel strips used in the production of wire ropes?
The steel strips used in wire rope production can have different specifications depending on the specific application and requirements. However, there are general specifications that are commonly followed in the industry. 1. Material: High-quality carbon or alloy steel is typically used to make the steel strips for wire rope production. These steels have excellent strength, ductility, and fatigue resistance. 2. Size and Dimensions: The dimensions of the steel strips may vary depending on the desired wire rope size and construction. Thicknesses can range from 0.15 mm to 6 mm, while widths can range from 2 mm to 100 mm. 3. Surface Finish: The steel strips used in wire rope production should have a smooth and clean surface to ensure proper adhesion of lubricants and coatings. The surface should be free from defects like cracks, scratches, or rust. 4. Mechanical Properties: The steel strips should have specific mechanical properties to ensure the strength and durability of the wire rope. These properties include high tensile strength, good elongation, and excellent fatigue resistance. The manufacturer usually specifies these properties based on the intended use of the wire rope. 5. Coating and Protection: To enhance corrosion resistance, steel strips used in wire rope production may be coated with zinc, galvanized, or treated with other corrosion-resistant coatings. The thickness and type of coating may vary depending on the application and environmental conditions. 6. Certification and Compliance: The steel strips should meet industry standards and certifications such as ASTM or ISO to ensure they meet specific quality and performance criteria. Compliance with these standards assures the suitability of the strip for wire rope production. It's important to note that these specifications can vary depending on the specific requirements of the wire rope applications, such as load capacity, working environment, and safety regulations. Therefore, consulting relevant industry standards and the wire rope manufacturer's guidelines is essential for specific specifications and recommendations.
Q: What is the weight of a typical steel strip?
The weight of a typical steel strip can vary depending on its dimensions and thickness. However, as a general estimate, a typical steel strip can weigh anywhere from a few grams to several kilograms per meter.
Q: How are steel strips processed for vibration dampening?
Various techniques can be used to process steel strips for vibration dampening. One common method involves applying a damping material, such as a viscoelastic polymer, onto the surface of the strip. This material is specifically designed to absorb and dissipate vibration energy, thereby reducing the amplitude of vibrations. Adhesive bonding, spraying, or lamination techniques can be utilized to apply the damping material. Another approach is to directly incorporate vibration-dampening features into the steel strip itself. This can be achieved through specialized manufacturing processes like roll forming or stamping, which introduce specific shapes or patterns into the strip. These shapes or patterns help disrupt the transmission of vibrations, effectively reducing their impact. Additionally, steel strips can be treated with various coatings to enhance their vibration-dampening properties. For example, applying a rubber or elastomer coating onto the strip's surface can provide additional vibration absorption and isolation. Techniques such as dip coating, spray coating, or even electroplating can be employed to apply these coatings. In summary, the processing of steel strips for vibration dampening involves incorporating damping materials, introducing vibration-dampening features, or applying specialized coatings onto the strip's surface. These techniques aim to minimize the transmission of vibrations and improve the overall performance and durability of the steel strip in applications where vibration control is crucial.
Q: Can steel strips be used for making electrical connectors in electronic devices?
Yes, steel strips can be used for making electrical connectors in electronic devices. However, steel strips may not be the optimal choice as they are not as conductive as other materials such as copper or gold. Copper or gold are commonly preferred for electrical connectors due to their excellent conductivity, low resistance, and corrosion resistance.
Q: Can steel strips be used for making automotive components?
Yes, steel strips can be used for making automotive components. Steel strips are commonly used in the automotive industry for various applications such as body panels, frames, brackets, and reinforcements due to their strength, durability, and ability to withstand high temperatures and impacts.

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