• First Class Cold Rolled Sheet Coil System 1
  • First Class Cold Rolled Sheet Coil System 2
  • First Class Cold Rolled Sheet Coil System 3
First Class Cold Rolled Sheet Coil

First Class Cold Rolled Sheet Coil

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Specification

Product Name

Cold  Rolled Sheet Coil

Material

SPCC/SPCD/SPCE/DC01/ST12/  ST14/SPCD/DC03/DC04 ect.

Grade Standard

JIS  G3302, EN10142, ASTM653, ASTM95

Thickness

0.15-3.5mm

Width

600mm-1500mm

Coil ID

508-610mm

Coil OD

max  1500mm

Weight

3-10  Tons

Tolerance

Thickness  tolerance:+/-0.02mm; Width tolerance:+/-5mm

Surface

No-skin  passed or Skin passed, Tensile leveled

Surface Treatment

Chromate/Unchromate  passivation, fingerprint resistant treatment, oiled/unoiled

Annual Output

350,000MT

Application

Construction,  hardware, home applicances, interior decoration

General Application of Cold Rolled Steel Coil:

Classification

Designation

Characteristics

Main  applications

Commercial  quality

SPCC

SPCCT

Commercial  quality suitable for bending fabrication and simple forming; this is the type  in greatest demand.

Refrigerators,  cabinets, power distribution baords and drums.

Drawing  quality

SPCD

Drawing  quality second only to that of SPCEN. Excellent uniformity.

Automobile  floor and roof panels.

Deep-drawing  quality

SPCE

SPCF

Deep-drawing  quality.With metallurgically controlled grain size, it retains its beautiful  finish even after being deep-drawn.

Automobile  fenders and quarter panels

Extra  deep-drawing quality

SPCG

Extra-low-carbon  steel sheets with highest workability

Automobile  internal panels and deep-drawn parts

Production Flow Chart

Specification

1. Thickness: 0.4-2.0mm

2. Width: 900-1250mm

3. Inner Diameter: 508 & 610mm

4. Weight of Steel Coil: 3-15MT

5. Heat Treatment: Annealed + Smoothed

6. Margin Status: EC & EM

7. Surface Quality: FC & FD

8. Surface Treatment: Oiling

9. Surface Status: Bright

Chemical Components

Grade

Chemical Components

C

Mn

P

S

Alt

St12

≤0.10

≤0.50

≤0.035

≤0.025

≥0.020

St13

≤0.08

≤0.45

≤0.030

≤0.025

≥0.020

St14

≤0.08

≤0.40

≤0.025

≤0.020

≥0.020

Mechanical Properties

1. Yield Strength: ≤320MPa

2. Tensile Strength: ≤370MPa

3. Elongation (L=50mm, b=25mm) When:

(1) Nominal Thickness <0.25mm: 30%

(2) Nominal Thickness 0.25mm-<0.40: 32%

(3) Nominal Thickness 0.40-<0.60mm: 34%

(4) Nominal Thickness 0.60-<1.0mm: 36%

(5) Nominal Thickness 1.0-<1.6mm: 37%

(6) Nominal Thickness >1.6mm: 38%


Q: What are the different types of steel coil handling equipment used during processing?
There are several types of steel coil handling equipment used during processing, including coil cars, coil cradles, coil tilters, coil lifters, coil grabs, and coil transfer cars. These pieces of equipment are designed to safely and efficiently handle steel coils and facilitate their movement throughout the processing facility.
Q: What are the different methods of coil blanking for irregular shapes?
Coil blanking for irregular shapes can be achieved through various methods. Among these methods, one commonly employed technique is laser blanking. By utilizing a high-powered laser, the shape is directly cut from the coil with exceptional precision. This method proves especially effective for intricate shapes, minimizing wastage. Another approach is water jet blanking, where a forceful stream of water mixed with abrasive particles is employed to cut the shape from the coil. Water jet blanking is particularly suitable for thicker materials or situations where heat sensitivity is a concern. Additionally, die blanking involves the utilization of a die to stamp out the desired shape from the coil. This method is frequently applied in large-scale production runs and can be automated for improved efficiency. Lastly, plasma blanking utilizes a plasma torch to cut the shape from the coil. It is commonly employed for thicker materials or situations requiring high cutting speeds. The choice of coil blanking method for irregular shapes is dependent on factors such as material thickness, shape complexity, production volume, and desired precision. Each method possesses its own advantages and limitations, necessitating careful selection to achieve optimal results.
Q: Please give me the name of the steel, and the percentage of materials from what It consists, if you can give me five types of steel it will be better so I can decide. Thanks.
Without okorder .. Plus few other useful resources. In the end, there's no one best steel, not even 5. It all depends on the knife design, use, edge thickness, what you cut, etc...
Q: How are steel coils used in the production of HVAC ducts?
Steel coils are used in the production of HVAC ducts as they are rolled into a specific shape and size to form the main body of the duct. The coils are then cut and welded together to create a seamless and durable structure that can withstand the high temperatures and pressures associated with HVAC systems.
Q: I have to explain some functions of stainless steel but after days of searching I cant find an answer. Thankyou in advance for your help :)
nicely worth little or no so a great way as i'm in contact. It has an somewhat destructive co useful of heat, is confusing to lubricate to maintain the meals from sticking and could strengthen a warm spot somewhat. My decision is a good high quality forged iron, it extremely is heavy yet conducts warmth nicely and spreads it flippantly. Stainless with copper bottoms is marginal for boiling water whether it does sparkling somewhat. There are countless alloys on the industry that are usable as cook dinner ware. Aluminum is worse than stainless. Of the organic metals, copper is the suited conductor of heat, forged iron is my decision, spun metallic does artwork. desire this helps. never wash forged iron cookware with cleansing soap and water.
Q: How are steel coils stored in warehouses?
Steel coils are typically stored in warehouses by stacking them horizontally on top of each other, often using specialized racks or shelves designed to support their weight. Coils are usually aligned in rows with adequate space between each stack to allow for easy access and movement of the coils. Additionally, some warehouses may use protective materials, such as wooden or plastic spacers, to prevent scratching or damage to the coils during storage.
Q: What are the safety regulations for steel coil production facilities?
The safety regulations for steel coil production facilities differ depending on the specific country or region. However, these facilities typically implement some common safety measures. One primary safety regulation is the proper training and education of employees. All workers in steel coil production facilities must undergo training on potential hazards and the correct safety procedures to follow. This includes training on handling heavy machinery, operating cranes or forklifts, and understanding the risks associated with working in a high-temperature environment. Maintenance and inspection of equipment are also important safety regulations. Regular inspections should be carried out to ensure that machinery and equipment are in good working condition and do not pose any safety risks. Moreover, maintenance procedures should be implemented to promptly address any issues or malfunctions. Fire safety is a crucial aspect of safety regulations in steel coil production facilities. Fire prevention measures like fire alarms, sprinkler systems, and fire extinguishers should be installed. Regular fire drills should also be conducted to ensure that all employees are familiar with evacuation procedures and can respond swiftly and effectively in case of a fire emergency. The use of personal protective equipment (PPE) is another vital safety requirement in steel coil production facilities. Employees must be provided with appropriate PPE such as safety glasses, helmets, gloves, and steel-toed boots to protect them from potential hazards like falling objects, sharp edges, and high temperatures. Additionally, safety regulations often necessitate the implementation of safety barriers and guards around machinery and equipment to prevent accidents and injuries. This includes safety gates, railings, and protective covers that restrict access to hazardous areas and prevent unauthorized entry. Regular safety audits and inspections should be conducted by relevant authorities or safety professionals to ensure compliance with safety regulations. Companies should also foster a culture of safety by encouraging open communication about safety concerns, providing safety training and refresher courses, and rewarding employees for adhering to safety protocols. It is important to note that safety regulations may vary across jurisdictions, and it is advisable to consult the specific regulations applicable in the country or region where the steel coil production facility is located.
Q: How are steel coils used in the manufacturing of HVAC systems?
Steel coils are used in the manufacturing of HVAC systems as they serve as the primary heat transfer component. The coils are designed to efficiently transfer heat between the air and refrigerant, allowing for effective cooling or heating of the space.
Q: What are the different methods of coil edge trimming?
There are several methods of coil edge trimming that are commonly used in various industries. These methods include: 1. Shearing: This method involves using a shear blade to cut the edges of the coil. Shearing is a common method used for cutting thick coils and can be done manually or with the help of a machine. It provides a clean and straight cut but may not be suitable for thin or delicate materials. 2. Slitting: Slitting is a process in which the coil is passed through slitter knives that make multiple cuts along the edge to create narrower strips. This method is commonly used for producing narrow coils or strips of various widths. Slitting can be done in-line with a coil processing line or as a separate standalone process. 3. Laser cutting: Laser cutting is a precise method of coil edge trimming that uses a high-powered laser beam to cut through the material. It offers high accuracy and flexibility to cut complex shapes or patterns. Laser cutting is commonly used for thin or delicate materials, as it minimizes the risk of deformation or damage caused by other cutting methods. 4. Plasma cutting: Plasma cutting is a thermal cutting process that uses a plasma torch to cut through the coil. It is suitable for cutting a wide range of materials, including thick coils. Plasma cutting is known for its high cutting speed and ability to cut through materials with high melting points, such as stainless steel or aluminum. 5. Waterjet cutting: Waterjet cutting is a method that uses a high-pressure jet of water mixed with an abrasive material to cut through the coil. It is a versatile method that can cut a wide range of materials and thicknesses. Waterjet cutting provides a smooth and precise cut without heat-affected zones, making it suitable for sensitive materials. 6. Guillotine cutting: Guillotine cutting involves using a guillotine-style blade to cut through the coil. It is a quick and efficient method that provides a straight cut. Guillotine cutting is commonly used for cutting coils of various thicknesses and is often performed with the help of a machine for higher precision. Each method of coil edge trimming has its own advantages and considerations depending on the specific requirements of the application. The choice of method usually depends on factors such as material properties, thickness, desired cutting accuracy, production volume, and budget constraints.
Q: What are the common welding methods used for steel coils?
There are several common welding methods used for steel coils, depending on the specific requirements and applications. Some of the most widely used methods include: 1. Shielded Metal Arc Welding (SMAW): Also known as stick welding, SMAW uses an electrode coated in flux to create an arc between the electrode and the base metal. This method is commonly used for its simplicity and versatility, making it suitable for a wide range of steel coil welding applications. 2. Gas Metal Arc Welding (GMAW): Also known as MIG (Metal Inert Gas) welding, GMAW uses a continuous wire electrode and a shielding gas to protect the weld pool from atmospheric contamination. This method is favored for its high welding speed and excellent control over the welding process. 3. Flux-Cored Arc Welding (FCAW): Similar to GMAW, FCAW uses a continuously fed tubular electrode filled with flux to protect the weld pool. This method is often preferred for its high deposition rates and ability to weld thicker steel coils, making it ideal for heavy-duty applications. 4. Gas Tungsten Arc Welding (GTAW): Also known as TIG (Tungsten Inert Gas) welding, GTAW uses a non-consumable tungsten electrode and an inert gas shield to protect the weld pool. This method is commonly used for its precise control, high-quality welds, and ability to weld thin materials. 5. Submerged Arc Welding (SAW): SAW involves the formation of an arc between a continuously fed wire electrode and the steel coil, while a granular flux covers the arc and weld area. This method is frequently used for its high productivity and ability to weld thick materials. Each of these welding methods has its own advantages and limitations, and the choice of method depends on factors such as the thickness of the steel coil, desired welding speed, weld quality, and application requirements.

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