• Stainless Steel Coil Hot / Cold Rolled 201 Process System 1
  • Stainless Steel Coil Hot / Cold Rolled 201 Process System 2
  • Stainless Steel Coil Hot / Cold Rolled 201 Process System 3
  • Stainless Steel Coil Hot / Cold Rolled 201 Process System 4
Stainless Steel Coil Hot / Cold Rolled 201 Process

Stainless Steel Coil Hot / Cold Rolled 201 Process

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

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Hot Rolled Stainless Steel Coil 201 Narrow Strip No.1 Finish


Packaging Detail: For customer's requirement

Delivery Detail: 10-30days

 

THK:2.3/2.5/3.0/4.0mm 

Width:485/510/550/610/1010/1240mm

Face:No.1

 

201 Hot rolled stainless steel Coil Application

Stainless steel is a production which not easy rust,acid resistance and corrosion resistance,so it is widely

used in light industry,heavy industry,daily necessities and the decoration industry

201 hot rolled stainless steel coil, use to produce cold rolled stainless steel coil and stainless steel tube, pipe.


 

201 Hot Stainless Steel Coil Chemical Composition(WT%)

(C):≤0.15(Si):≤0.75(Mn):5.5~7.50(Cr):16.0~18.0(N):≤0.25, (Ni):3.50~5.50, (P):≤0.060, (S):≤0.030

 

201 Hot Rolled Stainless Steel Coil

Strength Of Extension:100,000 To 180,000 Psi;

Yield Strength:50,000 To 150,000 Psi

Elongation :55 To 60%;

Modulus Of Elasticity:29,000,000 Psi;

Density :.280lbs/Cubic Inch(7.93g/Cm3)

 

 


Q: Can stainless steel strips be used in the production of cutlery?
Yes, stainless steel strips can be used in the production of cutlery. Stainless steel is a popular choice for cutlery due to its high resistance to corrosion and staining, as well as its durability and strength. Stainless steel strips are commonly used as the raw material for cutlery production as they can be easily shaped and formed into various utensil designs. Additionally, stainless steel strips can be polished to achieve a smooth and shiny surface, which is desirable for cutlery. Overall, stainless steel strips provide the necessary qualities required for the production of high-quality and long-lasting cutlery.
Q: Can stainless steel strips be used for architectural signage?
Yes, stainless steel strips can be used for architectural signage. Stainless steel is a durable and versatile material that is often used in architectural applications due to its strength and resistance to corrosion. It can be easily formed into various shapes and sizes, making it suitable for creating signage with different designs and dimensions. Additionally, stainless steel is known for its aesthetic appeal, with its polished finish providing a sleek and modern look. This makes it a popular choice for architectural signage, as it can enhance the overall appearance of a building or space. Furthermore, stainless steel is a low-maintenance material that can withstand harsh weather conditions, ensuring that the signage remains in good condition for an extended period. Overall, stainless steel strips are a reliable and visually appealing option for architectural signage.
Q: What are the recommended guidelines for machining 111 stainless steel strips?
To ensure optimal results when machining 111 stainless steel strips, it is advised to adhere to certain guidelines. These guidelines include: 1. Cutting tools: Utilize cutting tools that are specifically designed for machining stainless steel. Suitable options include carbide or high-speed steel tools. It is important to ensure that the tools are sharp and in good condition. 2. Cutting speed: Maintain a moderate cutting speed to prevent excessive heat buildup. The recommended cutting speed for 111 stainless steel strips is generally between 80 and 100 surface feet per minute (SFPM). 3. Feed rate: Use a feed rate that allows for efficient material removal without causing excessive wear on the tool. A feed rate of 0.005 to 0.015 inches per revolution (IPR) is typically suitable for 111 stainless steel strips. 4. Coolant and lubrication: Apply a suitable coolant or lubricant during the machining process to reduce friction, heat, and tool wear. Depending on the machining conditions, water-soluble or oil-based coolant/lubricant can be utilized. 5. Tool geometry: Select the appropriate tool geometry, such as a positive rake angle, to minimize cutting forces and improve chip evacuation. This helps prevent work hardening and tool breakage. 6. Workholding: Ensure secure and rigid workholding to minimize vibrations and enhance surface finish. Clamps or vice grips that provide sufficient grip without distorting the strips should be used. 7. Chip control: Employ effective measures for chip control, such as chip breakers or chip evacuation systems, to prevent chip buildup and protect the tool and workpiece from damage. 8. Quality control: Regularly monitor the machining process to ensure dimensional accuracy, surface finish, and adherence to tolerances. Appropriate measuring tools, such as calipers or micrometers, should be used for quality control checks. 9. Safety precautions: When machining stainless steel, it is essential to follow safety guidelines and wear appropriate personal protective equipment (PPE). This includes safety glasses, gloves, and hearing protection. It is important to note that these guidelines are general recommendations. Depending on the specific machining conditions, adjustments may be required. Factors such as strip width and thickness, desired surface finish, and the specific machinery being used should be taken into consideration. Consulting the manufacturer's recommendations and performing test cuts can help optimize the machining process for 111 stainless steel strips.
Q: Are stainless steel strips suitable for water treatment applications?
Stainless steel strips, indeed, prove to be appropriate for applications in water treatment. Stainless steel boasts exceptional resistance against corrosion and can endure exposure to water and the diverse chemicals commonly utilized in water treatment procedures. Its extraordinary strength and durability render it fitting for implementation in equipment employed in water treatment, such as filters, screens, tanks, and pipes. Moreover, stainless steel exhibits hygienic properties and can be easily cleaned, a crucial aspect in upholding water quality. Its ability to resist bacterial growth and endure high temperatures further establish it as a dependable option for water treatment applications.
Q: Are stainless steel strips suitable for high-temperature oxidation?
Yes, stainless steel strips are suitable for high-temperature oxidation. Stainless steel is known for its excellent resistance to oxidation and corrosion, making it an ideal choice for applications that involve high temperatures. The chromium content in stainless steel forms a protective oxide layer on the surface, which prevents further oxidation at elevated temperatures. This oxide layer acts as a barrier against the corrosive effects of oxygen and other elements, thereby ensuring the longevity and durability of stainless steel strips even in high-temperature environments. Additionally, stainless steel alloys with higher levels of chromium, nickel, and other alloying elements exhibit enhanced resistance to oxidation, making them particularly suitable for extremely high-temperature applications.
Q: What is the impact strength of stainless steel strips?
The impact strength of stainless steel strips can vary depending on the specific grade and composition of the stainless steel. Stainless steel is generally known for its excellent strength and durability, and this includes its impact resistance. Stainless steel strips are commonly used in various industries such as construction, automotive, and aerospace, where they are subjected to different types of impact forces. The high strength and toughness of stainless steel allow it to withstand impact and resist deformation, making it suitable for applications that require a material with good impact resistance. However, it is important to note that the impact strength of stainless steel can also be influenced by factors such as the thickness of the strip, the heat treatment applied to the material, and any surface coatings or treatments that may have been applied. Additionally, different grades of stainless steel can have varying impact strengths. To determine the exact impact strength of stainless steel strips, it is necessary to refer to specific material data sheets or conduct laboratory testing according to relevant industry standards. These tests can provide quantitative measurements of impact resistance, such as the ability of the material to withstand a certain level of force without fracturing or breaking.
Q: How do you join stainless steel strips together?
Stainless steel strips can be joined together using various methods such as welding, soldering, or using mechanical fasteners such as screws or bolts. Welding is the most common and effective method, which involves melting the edges of the strips together to create a strong bond. Additionally, soldering can be used for thinner strips, where a filler metal is melted between the strips to join them. Mechanical fasteners provide a non-permanent solution and can be used when disassembly might be required.
Q: How are stainless steel strips different from stainless steel sheets or plates?
Stainless steel strips are thinner and narrower compared to stainless steel sheets or plates. They are commonly used for applications where strength and corrosion resistance are required, such as in automotive, aerospace, and construction industries. Stainless steel sheets or plates, on the other hand, are thicker and wider, and are often used for larger structural or decorative purposes, such as in architecture, kitchen equipment, or industrial machinery.
Q: What are the factors affecting the machinability of 111 stainless steel strips?
The machinability of 111 stainless steel strips can be influenced by various factors. 1) The chemical composition of the stainless steel, including the presence and ratios of different elements, can have a significant impact on its machinability. Elements like sulfur and phosphorus can form brittle compounds, making it more difficult to machine. Conversely, the addition of alloying elements like manganese, chromium, and nickel can improve machinability. 2) The hardness of the stainless steel strips can also affect their machinability. Harder materials require more cutting force and wear out cutting tools faster, making them more challenging to machine. On the other hand, softer stainless steel strips are generally easier to machine. 3) The microstructure of the stainless steel plays a role as well. The presence of certain phases, such as retained austenite or carbides, can impact chip formation and tool wear. The grain size and distribution within the material can also affect machinability. 4) The heat treatment applied to the stainless steel strips can influence machinability. Different heat treatment techniques, such as annealing, quenching, or tempering, can alter the material's hardness and microstructure, ultimately affecting how it can be machined. 5) Selecting appropriate cutting parameters is crucial for achieving good machinability. Factors such as cutting speed, feed rate, and depth of cut need to be optimized based on the specific stainless steel grade and its properties. Finding the right balance is essential for efficient and accurate machining. 6) The choice of cutting tools and their material composition and geometry can significantly impact the machinability of stainless steel strips. Tools with higher hardness, wear resistance, and suitable chip evacuation geometry are generally preferred for machining stainless steel. 7) Proper lubrication and coolant during machining operations can improve machinability. Lubricants reduce friction and heat generation, while coolants aid in chip evacuation and prevent tool wear. By considering these factors and optimizing the machining process accordingly, it is possible to enhance the machinability of 111 stainless steel strips and achieve the desired results.
Q: Are stainless steel strips resistant to galvanic corrosion?
Yes, stainless steel strips are generally resistant to galvanic corrosion due to their inherent properties such as high chromium content, which forms a protective layer on the surface. This layer acts as a barrier against galvanic reactions and prevents the strip from corroding when in contact with dissimilar metals. However, in certain aggressive environments or under specific conditions, some forms of stainless steel may still experience galvanic corrosion.

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