• SUS316L No. 1 Finish Stainless Steel Plate System 1
  • SUS316L No. 1 Finish Stainless Steel Plate System 2
  • SUS316L No. 1 Finish Stainless Steel Plate System 3
SUS316L No. 1 Finish Stainless Steel Plate

SUS316L No. 1 Finish Stainless Steel Plate

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Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
15 m.t.
Supply Capability:
1000 m.t./month

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Item specifice

Standard:
AISI,JIS,BS,ASTM
Technique:
Cold Drawn,ERW,Saw
Shape:
Rectangular
Surface Treatment:
Coated,Oiled,Dry,Chromed Passivation
Steel Grade:
Q195,Q215,Q235,Q215B,Q235B,HRB400,200 Series,400 Series
Certification:
ISO,SGS,BV,IBR,RoHS
Thickness:
0.5
Length:
1000
Net Weight:
0.5MT

Product  Brief  Introduction

 

SUS316L No. 1 Finish 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: JIS: SUS 201, 202, 301, 304, 304L, 309S, 310S, 321, 316, 316L, 321, 410, 409L, 430 

Thickness: 0.13mm~3.0mm,

Width: 10mm-2000mm

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.

 SUS316L No. 1 Finish Stainless Steel Plate

 

 

 

Q:How are steel strips used in the production of agricultural implements?
Steel strips are used in the production of agricultural implements as they provide strength and durability to the implements. These strips are commonly used for creating blades, tines, and other parts that need to withstand the harsh conditions of farming activities. Steel strips also allow for precise shaping and cutting, ensuring that the agricultural implements are efficient and effective in their intended use.
Q:Can steel strips be used in low-temperature environments?
Yes, steel strips can be used in low-temperature environments. Steel is known for its strength and durability, even in extreme conditions. It has good resistance to low temperatures and remains mechanically stable, making it suitable for various applications such as construction, manufacturing, and transportation in cold climates. However, it is important to consider the specific grade and composition of the steel to ensure it is suitable for the desired low-temperature environment.
Q:What are the factors that affect the vibration damping properties of steel strips?
The vibration damping properties of steel strips can be influenced by various factors. 1) The material composition, including the type and amount of alloying elements, can play a role in the ability of the steel strip to dampen vibrations. For instance, adding elements like manganese or silicon can enhance the damping properties of steel. 2) The microstructure of the steel strip, which is determined by factors such as the cooling rate during manufacturing, can affect its damping properties. Fine-grained structures are generally known to exhibit better damping characteristics compared to coarse-grained structures. 3) The thickness and width of the steel strip can also impact its damping properties. Thicker and wider strips tend to have better damping properties as they offer a larger surface area for energy dissipation. On the other hand, thinner and narrower strips may exhibit higher vibration amplitudes and reduced damping. 4) The surface finish of the steel strip, including factors like roughness and imperfections, can influence its ability to dampen vibrations. Smoother surfaces with lower roughness values tend to provide better damping characteristics. 5) The temperature at which the steel strip operates can affect its damping properties. Generally, higher temperatures can reduce the damping capacity of steel as thermal energy can interfere with the dissipation of vibrational energy. 6) The damping properties of the steel strip can also be influenced by the magnitude and type of load applied to it. Factors such as the frequency, amplitude, duration, and cyclic nature of the applied load can impact vibration damping. 7) Environmental conditions, such as the presence of moisture or corrosive substances, can affect the damping properties of steel strips. If the material corrodes or degrades, it can lead to a decrease in damping performance. 8) The manufacturing process used to produce the steel strip, whether it is hot rolling or cold rolling, can affect its damping properties. Different manufacturing processes can result in variations in microstructure and material properties, which in turn can impact the ability to dampen vibrations. In summary, the vibration damping properties of steel strips are determined by a combination of these factors. Understanding their influence is crucial for designing and selecting materials with optimal damping characteristics for specific applications.
Q:Are steel strips used in the medical industry?
Yes, steel strips are commonly used in the medical industry for various applications such as surgical instruments, medical implants, and diagnostic equipment.
Q:What are the different rolling processes for steel strips?
There exist various rolling processes that can be employed for steel strips, each possessing its own distinct characteristics and advantages. Some of the most prevalent rolling processes for steel strips encompass: 1. Hot rolling: By subjecting the steel to elevated temperatures and subsequently passing it through a succession of rollers, its thickness is reduced. Hot rolling is commonly adopted to manufacture large quantities of steel strips with consistent thickness and a smooth surface finish. It finds extensive application in the production of structural components, like beams and plates. 2. Cold rolling: Unlike hot rolling, cold rolling involves passing the steel through rollers at room temperature. This process is employed to produce steel strips with enhanced dimensional accuracy and a superior surface finish. Cold rolling is frequently utilized to manufacture steel strips that necessitate tight tolerances, as seen in the automotive and appliance industries. 3. Skin pass rolling: A type of cold rolling, this process enhances the surface finish and flatness of steel strips. It entails passing the steel through rollers with a minute gap between them, exerting controlled pressure. Skin pass rolling minimizes thickness variations and enhances the surface quality of the steel strips. 4. Tandem rolling: This continuous rolling process entails passing the steel strip through a series of rolling stands in a single operation. Tandem rolling is commonly employed to produce steel strips with diverse thicknesses and widths. It offers high productivity and efficiency, rendering it suitable for large-scale production. 5. Reversing rolling: In this process, the steel strip is passed through a rolling mill in both forward and backward directions to achieve the desired thickness reduction. Reversing rolling is frequently utilized to produce steel strips with significant thickness reduction and a uniform thickness distribution. These examples merely provide a glimpse into the array of rolling processes available for steel strips. The selection of a specific process hinges upon factors such as the desired properties of the steel strips, production requirements, and cost-effectiveness of the process.
Q:What are the alternatives to steel strips for specific applications?
For specific applications, there are various options instead of steel strips, depending on the particular requirements and characteristics necessary for the application. Some of these alternatives are as follows: 1. Aluminum Strips: Aluminum strips possess traits such as being lightweight, corrosion-resistant, and having good conductivity. They find common usage in industries like aerospace and automotive, where weight is a significant consideration. 2. Copper Strips: Known for their exceptional electrical conductivity and high thermal conductivity, copper strips are commonly utilized in the electrical and electronics industries, where efficient electrical or heat transfer is required. 3. Plastic Strips: Plastic strips, such as PVC or polypropylene, are lightweight, cost-effective, and offer excellent corrosion resistance. They are often employed in applications where non-conductivity, flexibility, or chemical resistance is vital, like packaging, construction, or medical industries. 4. Fiberglass Strips: Lightweight and durable, fiberglass strips exhibit high tensile strength. They are frequently employed in applications that demand strength combined with corrosion resistance, such as the marine, automotive, or construction industries. 5. Carbon Fiber Strips: Carbon fiber strips serve as lightweight, high-strength alternatives to steel. They boast excellent tensile strength and are commonly utilized in applications that necessitate strength along with low weight, such as the aerospace, sporting goods, or automotive industries. 6. Titanium Strips: Lightweight, corrosion-resistant, and possessing a high strength-to-weight ratio, titanium strips are typically used in applications that require strength, corrosion resistance, and low weight, such as aerospace, marine, or medical industries. 7. Composite Strips: Composite strips, formed by combining materials like fiberglass, carbon fiber, or aramid fibers, offer a blend of distinct properties. They find usage in applications that demand specific characteristics, such as high strength, low weight, or particular thermal or electrical properties. Before opting for an alternative to steel strips, it is crucial to carefully consider the specific requirements and characteristics needed for the application. Each alternative material has its own advantages and limitations, and the selection will depend on factors such as cost, weight, strength, corrosion resistance, and other specific needs of the application.
Q:Where is the good quality of galvanized steel strip?
Strip steel is a kind of narrow and long steel plate produced by various rolling mills to meet the needs of industrial production of various metal or mechanical products in different industrial sectors. Strip steel, also known as steel strip, is within 1300mm in width, and the length varies slightly according to the size of each roll.
Q:Are steel strips suitable for high-precision applications?
Yes, steel strips are suitable for high-precision applications due to their excellent dimensional stability, strength, and durability. Steel strips can be manufactured to very tight tolerances, ensuring precise and accurate measurements. Additionally, they offer high resistance to deformation and wear, making them ideal for applications that require precision, such as automotive components, precision instruments, and electrical devices.
Q:Where can one buy high-quality steel strips?
One can buy high-quality steel strips from specialized steel suppliers or distributors, as well as online marketplaces that cater to industrial materials and products.
Q:What are the factors that affect the electrical conductivity of steel strips?
There are several factors that can affect the electrical conductivity of steel strips. 1. Composition: The composition of the steel strip plays a significant role in its electrical conductivity. Steel is primarily composed of iron, but it also contains other elements such as carbon, manganese, silicon, and various alloying elements. These elements can affect the electrical conductivity of the steel strip. For example, high carbon content can decrease electrical conductivity, while certain alloying elements like copper or nickel can increase conductivity. 2. Impurities: The presence of impurities in the steel strip can also impact its electrical conductivity. Impurities such as sulfur, phosphorus, and oxygen can introduce resistance to the flow of electrical current, thereby reducing conductivity. The level of impurities in the steel, therefore, needs to be minimized during the manufacturing process. 3. Grain size: The grain size of the steel strip can influence its electrical conductivity. Generally, smaller grain sizes have higher electrical conductivity due to the increased number of grain boundaries, which facilitate the movement of electrons. Heat treatment processes can be employed to control and optimize the grain size of the steel strip. 4. Temperature: Electrical conductivity of steel strips can be affected by temperature. As the temperature increases, the electrical resistance of the steel also increases, leading to a decrease in conductivity. This phenomenon is known as the temperature coefficient of resistance. It is important to consider the operating temperature range when selecting a steel strip for electrical applications. 5. Surface conditions: The surface condition of the steel strip can impact its electrical conductivity. Factors such as surface roughness, oxide layers, and contamination can introduce resistance, thereby reducing conductivity. Proper cleaning and surface treatment methods can be employed to improve the electrical conductivity of steel strips. 6. Thickness and cross-sectional area: The thickness and cross-sectional area of the steel strip can influence its electrical conductivity. Thicker strips generally have lower conductivity due to the increased path length for electron flow. Similarly, larger cross-sectional areas allow for more efficient electron movement, resulting in higher conductivity. It is crucial to consider these factors when designing and selecting steel strips for electrical applications, as they can greatly impact the overall performance and efficiency of electrical systems.

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