• 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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Specification

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 processed for leveling?
Steel strips are processed for leveling through a series of mechanical and thermal treatments. The initial step involves uncoiling the steel strips from a coil and feeding them into a leveling machine. This machine consists of a set of rollers that apply pressure on the strips to remove any unevenness and distortions in the material. The leveling process starts with the entry set of rollers, which gradually increase the tension and pressure on the strips. This pressure helps to flatten any curvatures or waves present on the surface of the strips. As the strips pass through the leveling machine, they are guided by a series of rollers that ensure a uniform and consistent pressure is applied across the entire width. During the leveling process, it is common to introduce heat treatments to enhance the ductility and ease the straightening of the steel. This is typically done through a heat treatment furnace, where the strips are heated to a specific temperature and then rapidly cooled. This thermal treatment helps to soften the steel, making it more malleable and facilitating the leveling process. After the leveling and heat treatment, the steel strips undergo another set of rollers known as tension levelers. These rollers apply tension to the strips and further remove any residual stresses or deformations. The tension levelers operate in conjunction with the previous leveling machine to ensure a flat and even surface is achieved. Once the leveling process is complete, the steel strips may undergo additional processes such as slitting, coating, or further heat treatments, depending on the intended application. This ensures that the final product meets the desired specifications in terms of thickness, surface quality, and mechanical properties. Overall, the leveling of steel strips involves a combination of mechanical and thermal treatments to remove distortions, curvatures, and stresses in the material. This process results in a flat and even surface, making the steel strips suitable for various industrial applications.
Q: What are the common edge burr tolerances for steel strips?
The tolerance levels for edge burrs in steel strips can differ depending on the unique demands of the application and the manufacturing process employed. Generally, the industry norm for edge burr tolerances in steel strips typically ranges from ±0.005 inches to ±0.010 inches. These tolerances guarantee that the edges of the steel strips are free from excessive burrs or sharp edges, which could potentially cause issues during subsequent processing or end-use applications. It is important to acknowledge that the specific tolerances may fluctuate based on factors such as the thickness of the steel strip, the type of steel utilized, and the manufacturing technique employed. Hence, it is crucial to refer to the applicable industry standards or the specific requirements outlined by the customer or end-user to obtain precise edge burr tolerances in steel strips.
Q: How are steel strips used in the production of hand tools?
Due to their durability and versatility, steel strips find wide application in the manufacturing of hand tools. These strips are typically made from high-quality steel alloys, which offer exceptional strength and wear resistance. In the production process, steel strips are initially cut into desired dimensions and then undergo various forming operations such as bending, stamping, or rolling. This allows the strips to take on the specific shapes required for hand tool components, including blades, handles, or shafts. The flexibility of steel strips enables the production of a diverse range of tool designs to meet varied application needs. Once the components are shaped, they undergo further processing through heat treatment, which enhances their hardness and toughness. This treatment ensures that the hand tools can endure significant force, impact, and wear during use, making them highly durable and long-lasting. Steel strips are also utilized in the production of hand tool accessories, such as springs, clips, or fasteners. These components play crucial roles in enhancing the functionality and usability of the tools. For example, springs made from steel strips provide the necessary tension or pressure required for certain hand tools, like pliers or clamps. Furthermore, steel strips can be coated or plated with protective finishes, such as chrome or nickel, to enhance their corrosion resistance and improve the overall aesthetics of the hand tools. This added layer of protection ensures that the tools remain in good condition even in challenging working environments. In summary, steel strips are indispensable in the production of hand tools as they provide the necessary strength, durability, and versatility for various applications. From blades to handles, these strips enable the creation of high-quality tools that can withstand rigorous use and deliver exceptional performance.
Q: How are steel strips processed for soundproofing?
Steel strips can be processed for soundproofing through a variety of techniques. One common method involves adding a layer of sound-absorbing material to the steel strip. This material, such as foam or rubber, helps to dampen and absorb sound vibrations, reducing noise transmission. The steel strip is typically coated or bonded with the sound-absorbing material, ensuring a secure attachment. Another approach is to use a technique called constrained layer damping (CLD), where a viscoelastic layer is applied to the steel strip. This layer converts sound energy into heat, effectively dissipating the vibrations and reducing noise. The viscoelastic layer is typically made of materials like butyl rubber, which possess excellent damping properties. Additionally, the steel strips can undergo surface treatments to enhance their soundproofing properties. For instance, perforations or microperforations can be made on the surface, which disrupts sound waves and reduces their transmission. This technique is often used in architectural applications, such as soundproofing ceilings or walls. Furthermore, the shape and dimensions of the steel strips can also contribute to soundproofing. For example, using thicker and wider strips can provide increased mass, which helps to block sound transmission. The design of the strips can also include features that disrupt sound waves, such as corrugations or ridges. Overall, the processing of steel strips for soundproofing involves various techniques such as adding sound-absorbing materials, applying viscoelastic layers, surface treatments, and optimizing the shape and dimensions. These methods aim to minimize noise transmission and create a quieter environment.
Q: Are steel strips suitable for the manufacturing of agricultural equipment?
Yes, steel strips are suitable for the manufacturing of agricultural equipment. Steel is known for its durability, strength, and resistance to wear and tear, making it an ideal material for agricultural equipment that often operates in harsh environments. Steel strips can be easily shaped and welded to create various components of agricultural machinery, such as plows, cultivators, and harvesters. Additionally, steel's ability to withstand heavy loads and extreme conditions ensures the longevity and reliability of the equipment, making it a preferred choice in the agricultural industry.
Q: Are steel strips commonly used in the manufacturing of electrical appliances?
Yes, steel strips are commonly used in the manufacturing of electrical appliances. Steel strips are often used as a primary material for the construction of various components in electrical appliances like motors, transformers, and generators due to their high strength, durability, and magnetic properties.
Q: How are steel strips processed for machinability?
Steel strips are processed for machinability through various methods such as heat treatment, cold rolling, and surface treatment. Heat treatment involves heating and cooling the steel strip to improve its mechanical properties and enhance machinability. Cold rolling is performed to reduce the thickness and improve the surface finish of the strip, making it easier to machine. Surface treatment techniques like pickling or coating may also be applied to remove impurities and provide a smoother surface for better machinability. Overall, these processes aim to optimize the steel strips' properties and surface characteristics to ensure easy and efficient machining.
Q: How are steel strips used in the production of transformers?
Due to their various properties and functionalities, steel strips are crucial in the production of transformers. These strips are primarily utilized to create the core of the transformer, responsible for transferring magnetic energy between the primary and secondary windings. When it comes to transformer production, steel strips are typically made of high-grade electrical steel, such as grain-oriented electrical steel (GOES) or non-oriented electrical steel (NOES). These materials are chosen for their ability to efficiently conduct magnetic flux thanks to their low core loss and high magnetic permeability. To construct the transformer core, the steel strips are cut into specific dimensions and stacked together as laminations. This lamination process involves insulating each strip from one another to minimize eddy current losses, which could otherwise reduce the overall efficiency of the transformer. Insulating coatings or varnish are applied to the surfaces of the steel strips to achieve this insulation. The stacked and insulated steel strips are then assembled into a core using either an interleaved or wound method. The core is designed to provide a closed magnetic circuit, efficiently transferring the magnetic energy generated by the primary winding to the secondary winding. The utilization of steel strips in transformer production guarantees that the core possesses excellent magnetic properties, including low hysteresis and eddy current losses. These properties are crucial in minimizing energy waste and enhancing transformer efficiency. Furthermore, the laminated structure of the core helps reduce vibrations and noise, resulting in quieter operation. In conclusion, steel strips play a vital role in transformer production by providing the core material required for efficient magnetic energy transfer. Their properties, such as low core loss and high magnetic permeability, greatly contribute to the overall performance and efficiency of the transformer.
Q: What are the different slitting techniques for steel strips?
There are several different slitting techniques for steel strips, including rotary shear slitting, loop slitting, and crush cutting. Rotary shear slitting involves using rotary knives to cut the steel strip into narrower widths. Loop slitting is a technique where the steel strip is passed through a series of loops to maintain tension while cutting. Crush cutting involves using a crush roller or knife to cut the steel strip. These techniques are used to create narrower steel strips for various industrial applications.
Q: Can steel strips be used for making precision instruments?
Yes, steel strips can be used for making precision instruments. Steel is a versatile material that offers excellent strength, durability, and stability, making it suitable for various applications, including precision instruments. Steel strips can be manufactured to precise thicknesses and dimensions, allowing for the creation of accurate and reliable instruments. Additionally, steel can be further processed, such as through heat treatment or surface finishing, to enhance its properties and meet specific requirements for precision instruments. Therefore, steel strips are a viable choice for manufacturing precision instruments.

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