• 5052 Marine Grade 20mm Thickness Aluminium Plate System 1
  • 5052 Marine Grade 20mm Thickness Aluminium Plate System 2
5052 Marine Grade 20mm Thickness Aluminium Plate

5052 Marine Grade 20mm Thickness Aluminium Plate

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

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Item specifice

Grade:
1000 Series,7000 Series,5000 Series
Surface Treatment:
Anodized,Mill Finish,Brushed,Holographic Impression
Shape:
Angle,Flat,Rectangular
Temper:
O-H112,Soft
Application:
Decorations,Transportation Tools,Kitchen Use,Pharmaceutical
Thickness:
0.05-4.0mm
Width:
200mm---980mm
Outer Diameter:
450-600
Net Weight (kg):
2.5 ton
Packaging:
Wooden pallets

5052 Marine Grade 20mm Thickness Aluminium Plate 


Packaging & Delivery

   Product Specification

Grade

1000 Series: 1050 1060 1100

3000 Series: 3003 3004 3105

5000 Series: 5052 5605,5083

6000 Series: 6061 6063

8000 Series: 8011 8021 8079

Thickness

0.20-8.00mm

Width

2400mm max.

Grade

1000,3000,5000,6000,8000series

Coil ID

75mm, 150mm, 200mm, 300mm, 400mm, 508mm or negotiable

Coil weight

1000-5000kgs

Coil OD

1700mm max.

Temper

O, H12, H14, H16, H111, H22 ,H24, H26, H28,T4, T6,etc.




Temper
Fprocessing state
Hstrain hardening state
Oannealing
Theat treatment state
H112pure state of strain hardening, adjustment has been made to degree of strain hardening and annealing
T4solid solution treatment and natural efficiency to achieve sufficient stability condition
T5artificial aging condition of the reentry after high temperature thermal cooling 
T6artificial aging state after solid solution treatment



Chemical Composition

GradeSiFeCuMnMgCrNiZnAl
10500.250.40.050.050.05--0.0599.5
10600.250.350.050.030.03--0.0599.6
10700.20.250.040.030.03--0.0499.7
1100Si+Fe:0.95
0.05-0.20.05--0.1-99
1200Si+Fe:1.00
0.050.05--0.10.0599
1235Si+Fe:0.65
0.050.050.05-0.10.0699.35
30030.60.70.05-0.21.0-1.5---0.1remains
30040.30.70.251.0-1.50.8-1.3--0.25remains
30050.60.70.251.0-1.50.20-0.60.1-0.25remains
31050.60.70.30.30-0.80.20-0.80.2-0.4remains
3A210.60.70.21.0-1.60.05--0.1remains
50050.30.70.20.20.50-1.10.1-0.25remains
50520.250.40.10.12.2-2.80.15-0.35-0.1remains
50830.40.40.10.40-1.04.0-4.90.05-0.25-0.25remains
51540.250.40.10.13.1-3.90.15-0.35-0.2remains
51820.20.350.150.20-0.504.0-5.00.1-0.25remains
52510.40.50.150.1-0.51.7-2.40.15-0.15remains
57540.40.40.10.52.6-3.60.3-0.2remains
60610.40-0.80.70.15-0.400.150.8-1.20.04-0.35-0.25remains
60630.20-0.60.350.10.10.45-0.90.1-0.1remains
60820.7-1.30.50.10.40-1.00.6-1.20.25-0.2remains
6A020.50-1.20.50.20-0.6Or Cr0.15-0.350.45-0.9--0.2remains
80110.50-0.90.6-1.00.10.20.050.05-0.1remains


5052 Marine Grade 20mm Thickness Aluminium Plate


5052 Marine Grade 20mm Thickness Aluminium Plate


5052 Marine Grade 20mm Thickness Aluminium Plate


Q:Can aluminum coils be used in the production of cans?
Indeed, the utilization of aluminum coils is applicable in the manufacturing of cans. This versatile material, known for its exceptional attributes like its lightweight nature, durability, and ability to resist corrosion, finds extensive employment in the can-making industry. Typically, during the production procedure, aluminum coils are shaped into sheets and subsequently trimmed to achieve the desired dimensions and contours of the can. These sheets are then treated with coatings, printed upon, and processed into cans using a variety of techniques. Employing aluminum coils guarantees the creation of first-rate cans that are well-suited for packaging a wide range of beverages and food items.
Q:I wrap everything with aluminum foil and bake it in the oven -- fish, meat, vegetables. Is this really safe? Or safe when done occasionally? Or should I find a new way?
Perfectly safe. I think you must be referring to the great aluminum pots and pans debacle Whereupon, several researchers found trace amounts of aluminum in the brains of dead alzheimer patients so, ergo, ipso, facto, aluminum causes alzheimers and everyone tossed their aluminum cookware. It was subsequently found to be the testing lab, who was finding the trace amounts of aluminum in the brain tissue, that was responsible for tainting their own equipment with trace aluminum, thus, they were finding it in EVERYTHING they tested. I still think it was the aluminum cookware industries way of getting us all to buy new pans LOL.
Q:What kind of sensor is appropriate for aluminum coil thickness measurement?
Use two sensors of ZLDS10X series to make a thickness gauge
Q:How are aluminum coils inspected for quality?
Aluminum coils are inspected for quality through a series of rigorous tests and inspections. These inspections are crucial to ensure that the coils meet the required industry standards and specifications. One common method used to inspect aluminum coils is visual inspection. Trained inspectors visually examine the coils for any visible defects such as surface scratches, dents, or any other physical imperfections that may affect the quality of the coil. This inspection is typically done using specialized lighting and magnification equipment to ensure thorough examination. Another important inspection method is dimensional inspection. In this process, the dimensions of the aluminum coils are measured and compared against the specified tolerances. This helps ensure that the coils meet the required size and shape requirements. Coating inspection is also an essential part of the quality inspection process. The coating on aluminum coils is inspected for uniformity, adhesion, and thickness. Specialized instruments are used to measure the coating thickness and ensure that it meets the specified requirements. Additionally, mechanical properties such as tensile strength, yield strength, and elongation are tested to assess the strength and durability of the aluminum coils. These tests involve subjecting samples from the coils to controlled stress and measuring their response. Lastly, various non-destructive testing techniques are employed to detect any hidden defects or flaws that may not be visible to the naked eye. These techniques include ultrasonic testing, eddy current testing, and dye penetrant testing. These methods help identify any internal defects such as cracks or voids that could compromise the quality of the aluminum coils. Overall, a combination of visual inspections, dimensional measurements, coating inspections, mechanical property testing, and non-destructive testing techniques are employed to thoroughly inspect aluminum coils and ensure their quality before they are deemed suitable for use in various industries such as construction, automotive, and aerospace.
Q:Other than alloys. I'm trying to think of a way I can make an aluminum knife that will hold an edge. One group of researches say they used 60 metric tons of force to realign the molecular structure and give the metal strength equal to steel. I don't have a 60 ton press aha. Would heat treatment plus 10 tons of pressure repeated have a similar affect?
Aluminum bronze is used commercially to make non-sparking knives. Why try to reinvent the wheel? I'm trying to think of a way I can make an aluminum knife that will hold an edge. You can strengthen aluminum by either cold working or heat treating a suitable alloy, but it will never be anything close to a good steel knife. Would heat treatment plus 10 tons of pressure repeated have a similar affect? No. Assuming that you are talking about the article linked to below: - you would have to duplicate the alloy process, even then you could only make a small thin sheet. They used a heat treatable alloy. The process involves torsional strain under 60 metric tons per square centimeter compression. How big a press do you think you would need for a knife size blank? And remember, you have to apply torsional cold work while compressing it. -Their results ( 1 gPA YS 5% elongation in a very thin sheet) don't look that great compared to a good knife steel. Or a good titanium knife.
Q:Are there any limitations on the powder coating of aluminum coils?
Yes, there are limitations on the powder coating of aluminum coils. Firstly, the thickness and quality of the aluminum coil can impact the effectiveness of the powder coating process. If the coil is too thin or of low quality, it may not be able to withstand the heat required for the powder coating process, leading to distortion or damage to the coil. Additionally, the surface preparation of the aluminum coil is crucial for successful powder coating. Any contaminants or impurities on the surface, such as oils, dirt, or oxides, can interfere with the adhesion of the powder coating. Proper cleaning and pre-treatment of the surface is necessary to ensure a smooth and durable coating. Furthermore, the size and shape of the aluminum coil may also pose limitations. Complex shapes or intricate designs may be challenging to coat evenly, resulting in variations in coating thickness or coverage. It may require special techniques or equipment to ensure a uniform and consistent coating. Finally, the choice of powder coating material may impact the limitations. Certain powder coatings may not be suitable for use on aluminum coils due to chemical compatibility issues or inadequate adhesion properties. It is important to select a powder coating material specifically designed for use on aluminum substrates. Overall, while powder coating is a popular and effective method for coating aluminum coils, there are limitations that need to be considered. Proper surface preparation, substrate quality, and coating material selection are crucial factors to ensure a successful and durable powder coating finish.
Q:What are the different types of surface treatments for aluminum coils?
Aluminum coils can undergo various surface treatments to enhance their appearance, durability, and resistance to corrosion. Let's explore the different types of treatments available: 1. Anodizing: This method involves forming a protective oxide layer on the aluminum surface. Anodizing can be performed in different colors, adding an aesthetic touch to the coils. Additionally, it improves resistance against corrosion and wear. 2. Painting: High-quality paints can be applied to aluminum coils to provide both decorative and protective finishes. A wide range of colors and finishes, such as matte, gloss, or metallic, can be chosen. Painting not only enhances appearance but also offers additional protection against corrosion and UV rays. 3. Powder Coating: In this process, a dry powder is electrostatically applied to the aluminum coils and then cured under heat. Powder coating provides a durable and attractive finish that resists chipping, scratching, and fading. It comes in a variety of colors and textures. 4. Chemical Conversion Coating: This treatment involves applying a chemical solution to the aluminum surface, resulting in a thin protective layer. The conversion coating enhances corrosion resistance and provides a suitable base for subsequent paint or powder coating. 5. Brushing: Brushing is a mechanical treatment that utilizes abrasive brushes to create a textured finish on aluminum coils. This technique achieves a brushed or satin-like appearance, adding a unique aesthetic appeal. 6. Embossing: By creating raised patterns or textures on the aluminum surface, embossing enhances both visual appeal and the strength and stiffness of the coils. Embossed coils are often used in architectural and decorative applications. Ultimately, the choice of surface treatment for aluminum coils depends on specific requirements and desired appearance. Each treatment offers distinct benefits in terms of durability, corrosion resistance, and aesthetic appeal.
Q:How do aluminum coils compare to copper coils in terms of performance?
Aluminum coils and copper coils are two common types of heat exchanger coils used in heating, ventilation, and air conditioning (HVAC) systems. While both materials are effective in transferring heat, they do differ in terms of performance. Copper coils have long been the preferred choice for HVAC systems due to their superior heat transfer properties. Copper is an excellent conductor of heat, allowing for efficient transfer of thermal energy. This means that copper coils can cool or heat the surrounding air more effectively, resulting in faster and more efficient temperature control. On the other hand, aluminum coils are less efficient in terms of heat transfer compared to copper coils. Aluminum is a poorer conductor of heat, which means that it requires a larger surface area to achieve the same level of heat transfer as copper. Consequently, aluminum coils tend to be larger in size to compensate for their lower heat transfer capabilities. However, aluminum coils do have some advantages over copper coils. Firstly, aluminum is a lightweight material, making it easier to handle and install. This can be particularly beneficial in situations where weight restrictions or handling limitations are a concern. Secondly, aluminum coils are more resistant to corrosion compared to copper coils. Copper is prone to corrosion over time, especially in environments with high humidity or exposure to certain chemicals. Aluminum, on the other hand, naturally forms a protective oxide layer that helps prevent corrosion. This can result in longer-lasting coils and a lower likelihood of refrigerant leaks. In summary, while copper coils offer superior heat transfer capabilities, aluminum coils have their own advantages such as lighter weight and better corrosion resistance. The choice between aluminum and copper coils ultimately depends on the specific requirements of the HVAC system, including the desired performance, budget, and environmental factors.
Q:What are the surface treatment options for aluminum coils?
There are multiple choices when it comes to surface treatments for aluminum coils, depending on specific needs and desired outcomes. Some commonly used options are as follows: 1. Anodizing: This widely utilized method involves the creation of a protective oxide layer on the surface of the aluminum coil. Anodizing offers corrosion resistance, improved durability, and the ability to customize colors with dyes. 2. Painting: Various types of paint can be applied to aluminum coils to enhance their appearance, provide extra protection against corrosion, and increase resistance to UV radiation. Both liquid and powder coatings are available, offering different finishes and levels of durability. 3. Coil coating: This treatment is a continuous process where a coating material is applied to the surface of the aluminum coil. The coil is then cured, resulting in a uniform and long-lasting coating. This option provides a wide range of finishes, colors, and special effects. 4. Laminating: By applying a protective film or sheet onto the aluminum coil's surface, laminating can enhance its resistance to scratches, abrasion, and chemicals. This treatment is commonly used in applications where the coil may encounter harsh environments. 5. Brushing or polishing: These mechanical treatments can give the aluminum coil the desired texture, such as a brushed or mirror-like finish. Brushing creates parallel lines, while polishing results in a highly reflective and smooth surface. 6. Chemical conversion coatings: Typically used as a pre-treatment before painting or as a standalone treatment, these coatings enhance corrosion resistance and provide a base for subsequent coatings like paint or powder coating. These examples demonstrate the range of surface treatment options available for aluminum coils. The choice of treatment will depend on factors such as desired appearance, level of corrosion resistance, durability, and specific application requirements.
Q:What are the acoustic properties of buildings using aluminum coils?
Various factors can influence the acoustic properties of buildings that utilize aluminum coils. These coils are commonly employed in the construction industry for purposes such as roofing, cladding, and insulation. In terms of acoustics, these properties can have both positive and negative effects on sound transmission within a building. One of the main advantages of using aluminum coils from an acoustic standpoint is their ability to act as a barrier that reflects sound waves. When installed correctly, they can help prevent sound from penetrating walls or ceilings, resulting in a reduction of external noise sources. This can be especially beneficial in areas with significant noise pollution, such as urban environments or locations near busy roads. Additionally, aluminum coils can contribute to the overall sound insulation of a building. Due to their material properties, they can provide a certain level of soundproofing, particularly when combined with other insulation materials. This can create a comfortable and quiet indoor environment, which can lead to improved concentration, productivity, and overall well-being for occupants. However, it is important to note that the acoustic properties of buildings using aluminum coils may also have limitations. Aluminum is a lightweight material compared to alternatives like concrete or brick, meaning it may not offer as much mass to block sound transmission. Therefore, in situations where high sound insulation is necessary, additional measures such as double glazing, acoustic seals, or thicker wall constructions may be required. Furthermore, the use of aluminum coils can also impact the sound reverberation within a space. Their smooth and reflective surface can cause sound waves to bounce off, resulting in increased echo and reverberation time. This can have a negative effect on speech intelligibility and acoustic comfort, particularly in larger open-plan areas or rooms with high ceilings. Overall, while aluminum coils can provide certain acoustic benefits such as sound reflection and insulation, it is crucial to consider the specific requirements of each building project. Consulting with acoustic engineers or professionals can help ensure that appropriate measures are taken to optimize the acoustic properties of buildings utilizing aluminum coils and address any potential limitations.

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