• Wood Pattern Coated Galvanized PPGI Steel Plates System 1
  • Wood Pattern Coated Galvanized PPGI Steel Plates System 2
  • Wood Pattern Coated Galvanized PPGI Steel Plates System 3
Wood Pattern Coated Galvanized PPGI Steel Plates

Wood Pattern Coated Galvanized PPGI Steel Plates

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Loading Port:
Shanghai
Payment Terms:
TT OR LC
Min Order Qty:
30 m.t.
Supply Capability:
1200000 m.t./month

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Specification

Standard:
API
Technique:
Forged
Shape:
Round
Surface Treatment:
Galvanized
Steel Grade:
Q215
Certification:
SGS
Thickness:
3
Length:
3
Net Weight:
3

Description of Glove:

1.  Environment friendly

2.  Lower cost and maintenance

3.  Long using time up to 10 years

4.  Fast construction, time saving and labor saving

5.  Easy cleaning

6.  Antistatic

 

Festures of Glove:

 Building industry

 Outdoor application

Roof, structural balcony, panels, window sills, window frames, gates, garage doors, rolling doors, booths, shutters, watch rooms, makeshift houses, street waiting room (booth), refrigerators, etc.

Indoor application

Room doors, dividing walls, door frames, light house steel structures, sliding doors, screens, ceilings, toilets, interior elevator lobby, stairwayventilating duct, communication pipelines.   

 

Specifications of Glove:

1. Aesthetics: Pre-Painted Galvanized steel sheet is available in plethora of patterns and multiple sizes as per the requirements that given by our customers.

2. Versatility: can be used in the various areas.

 

Images of Glove: 

Wood Pattern Coated Galvanized PPGI Steel Plates 

 

FAQ:

1.What about the delivery.

We can arrange the shipment about 15-25 days after the deposit.

2.What about payment term?

30% T/T deposit, balance against B/L copy.

Full T/T payment if quantity less than MOQ.

3.How much about MOQ?

Normally 100pcs,but small order is acceptable as well.

Q: What are the different methods of punching steel coils?
There are several different methods used for punching steel coils, depending on the specific requirements and desired outcome. Here are a few common methods: 1. Mechanical Punching: This method involves using a mechanical press to apply force and create holes in the steel coil. It utilizes a punch and die set, where the punch is driven into the coil to create the hole. Mechanical punching is ideal for punching small to medium-sized holes and is often used in high-volume production settings. 2. Hydraulic Punching: Hydraulic punching utilizes hydraulic pressure to drive the punch into the steel coil. This method is often used for punching larger holes or shapes that require greater force. Hydraulic punching machines offer precise control and can handle thicker and harder materials. 3. Laser Cutting: Laser cutting is a non-contact method that uses a laser beam to cut through the steel coil. A focused laser beam is directed onto the coil, melting and evaporating the material to create the desired shape or hole. Laser cutting offers high precision and can be used for complex shapes and patterns. 4. Plasma Cutting: Plasma cutting involves using a high-velocity jet of ionized gas (plasma) to melt and remove the steel coil material. This method is suitable for cutting thicker steel coils and is often used for larger holes or irregular shapes. 5. Waterjet Cutting: Waterjet cutting utilizes a high-pressure jet of water mixed with abrasive particles to cut through the steel coil. This method is versatile and can effectively cut through various materials, including steel. Waterjet cutting is known for its high precision and clean cuts. Each method of punching steel coils has its own advantages and considerations. Factors such as material thickness, desired precision, production volume, and cost will determine the most suitable method for a specific application.
Q: How are steel coils used in the production of electrical conduits?
Steel coils are used in the production of electrical conduits in several ways. Firstly, steel coils are used as the raw material for manufacturing electrical conduits. These coils are made of high-quality steel that is specially processed and formed into a long, continuous strip. Once the steel coils are obtained, they are fed into a machine called a slitter. The slitter cuts the coils into narrower strips of the desired width. These narrower strips will serve as the base material for the electrical conduits. The next step is to shape the steel strips into the desired conduit shape. This is done by passing the strips through a series of rollers and other shaping tools. The steel strips are gradually formed into the round or rectangular shape of the conduit. The rollers apply pressure and manipulate the steel strip until it reaches the desired shape. After the shaping process, the ends of the steel strips are welded together to create a continuous conduit. This welding process ensures that the conduit will have a seamless structure, which is important for its functionality and durability. Once the conduits are formed and welded, they undergo further processing to enhance their properties. This may include processes such as galvanizing, where the conduits are coated with a layer of zinc to protect them from corrosion. This additional layer provides the conduits with increased longevity, making them suitable for various electrical applications. In summary, steel coils are essential in the production of electrical conduits. The coils serve as the raw material that is shaped, welded, and processed to create the final product. The use of steel coils ensures that the electrical conduits are strong, durable, and capable of withstanding the demands of electrical installations.
Q: How do steel coils resist corrosion?
Steel coils resist corrosion due to the protective layer formed on their surface. This layer, known as a patina, acts as a barrier between the steel and the surrounding environment, preventing moisture and oxygen from reaching the metal and causing oxidation. Additionally, steel coils can be coated with corrosion-resistant materials such as zinc or paint to further enhance their resistance to corrosion.
Q: How are steel coils used in the manufacturing of braking systems?
Steel coils are used in the manufacturing of braking systems as they are shaped and formed into various components such as brake discs, brake pads, and brake calipers. These coils are made of high-quality steel that provides strength and durability, ensuring efficient and reliable braking performance for vehicles.
Q: Can you weld copper or brass to steel?
Copper cannot be welded to steel since copper has a significantly lower melting point than steel, and brass has an even lower melting point than copper. Therefore, traditional fusion welding processes would not work. It's possible to braze copper to steel using brass as a filler metal, but this is not usually done because of practical concerns. (For example, the melting point of zinc brass is close enough to that of copper, that it's hard to heat the joint to the melting temperature of the brass without also melting the copper.) Rather, it's common to braze copper to steel using silver-copper-zinc brazing alloys instead. These alloys have a lower working temp. than zinc brass. Copper-silver-phosphorus brazing alloys, or zinc-tin hard solder could also be used. Also, solid state welding methods can be used to join copper to steel, but this is limited to very special applications. Friction welding can be used to join copper pipes and/or shafts to steel ones. Explosion welding can be used to join a copper or brass sheet to a steel plate. Forge welding may be possible between copper and steel, but I don't know of any applications for this.
Q: How are steel coils used in the production of construction components?
Steel coils are used in the production of construction components by being processed into various shapes and sizes, such as beams, columns, and plates. The coils are unwound and then cut, bent, or shaped to meet the specific requirements of the construction project. Additionally, the high strength and durability of steel make it a preferred material for construction, ensuring the components can withstand heavy loads and harsh environmental conditions.
Q: What are the common coil processing methods?
Some common coil processing methods include slitting, shearing, blanking, leveling, and edging.
Q: What are the environmental impacts of steel coil production?
The environmental impacts of steel coil production include emissions of greenhouse gases, such as carbon dioxide, during the process of extracting and processing raw materials like iron ore and coal. Additionally, the production of steel coils requires a significant amount of energy, contributing to the depletion of natural resources and increased carbon emissions. The wastewater generated during steel production can also contain pollutants, which may harm aquatic ecosystems if not properly treated. Furthermore, the disposal of steel coil waste, such as slag and other by-products, can pose challenges in terms of proper handling and potential contamination of soil and water sources. Overall, steel coil production has substantial environmental impacts that demand sustainable practices and mitigation measures.
Q: How do steel coils contribute to sustainability in manufacturing?
There are several ways in which steel coils contribute to sustainability in manufacturing: 1. Recycling plays a crucial role: Steel is one of the world's most recycled materials, boasting a recycling rate above 90%. Steel coils are made from recycled steel and can be recycled again at the end of their lifespan. This reduces the reliance on raw materials extraction, conserves natural resources, and decreases energy consumption and greenhouse gas emissions associated with steel production. 2. Durability is a key factor: Steel is renowned for its strength and durability. Steel coils are specifically designed to withstand heavy loads, extreme temperatures, and harsh environmental conditions. Consequently, products made from steel coils, such as automotive parts, construction materials, and appliances, have a longer lifespan. This diminishes the need for frequent replacements and minimizes waste. 3. Energy efficiency is improved: Steel coils are utilized in various manufacturing processes, including stamping, forming, and welding. These processes require less energy when working with steel coils compared to other materials. Steel's high strength-to-weight ratio allows for the production of lightweight yet strong components, reducing energy consumption during transportation and enhancing fuel efficiency in vehicles. 4. Emissions are reduced: Steel coils contribute to sustainability by assisting manufacturers in lowering their emissions. Steel is a low-carbon material, emitting fewer greenhouse gases compared to materials such as aluminum or plastics. By employing steel coils, manufacturers can reduce their carbon footprint and contribute to climate change mitigation efforts. 5. The circular economy is promoted: Steel coils play a crucial role in the circular economy, which aims to minimize waste and maximize resource efficiency. Steel coils can be easily recycled and reused, ensuring their continued presence in the production cycle. This diminishes the need for virgin materials and encourages a more sustainable and circular approach to manufacturing. To conclude, steel coils make significant contributions to sustainability in manufacturing by being recyclable, durable, energy-efficient, emission-reducing, and promoting a circular economy. By selecting steel as a material and utilizing steel coils, manufacturers can take significant steps towards reducing their environmental impact and fostering a more sustainable manufacturing industry.
Q: What are the common coil handling challenges?
Common coil handling challenges include the risk of coil damage during handling and transportation, difficulties in aligning and positioning coils accurately, issues with coil slippage and instability, as well as the need for specialized equipment to safely and efficiently handle large and heavy coils. Additionally, managing coil edges and preventing injuries to workers are also common challenges faced in coil handling processes.

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