• Aluminum PVDF Aluminium Composite Panel - EN AW-3004 System 1
  • Aluminum PVDF Aluminium Composite Panel - EN AW-3004 System 2
  • Aluminum PVDF Aluminium Composite Panel - EN AW-3004 System 3
Aluminum PVDF Aluminium Composite Panel - EN AW-3004

Aluminum PVDF Aluminium Composite Panel - EN AW-3004

Ref Price:
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Loading Port:
Shanghai
Payment Terms:
TT OR LC
Min Order Qty:
5 m.t.
Supply Capability:
1000 m.t./month

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Specification

Grade:
1000 Series,3000 Series,2000 Series
Surface Treatment:
Coated,Color Coated,Embossed
Shape:
Angle
Temper:
T3-T8
Application:
Decorations,Door & Window

1. Structure of EN AW - 3004 PVDF Aluminium Composite Panel Description

EN AW - 3004 PVDF Aluminium Composite Panel is one semi-finished aluminium material. This coil can be rolled down to aluminium coil,sheet,circle ect.  The alloy AA3105 is widly used in building, industry ect. Its weight is much lower than steel. So many customers choosed aluminium material instead of steel.

 

2.   Specification of EN AW - 3004 PVDF Aluminium Composite Panel

EN AW - 3004 PVDF Aluminium Composite Panel

Main Specification

Alloy

AA1xxx (AA1050, AA1060, AA1070, AA1100 etc.)

AA3xxx (AA3003, AA3004, AA3005, AA3105 etc.)

AA5xxx, AA6XXX (AA5052,AA5083, AA5754, AA6061, AA6062 etc.)

AA8xxx(AA8011, AA8006 etc.)

Temper

H14,H16, H18, H22, H24, H26, H32,O/F, T4, T6, T651

Thickmess

0.01mm-100mm

Width

30mm-1700mm

Standard

GB/T 3880-2006/ASTM

Special specification is available on customer's requirement

 

3.  Application of EN AW - 3004 PVDF Aluminium Composite Panel

(1).Interior: wall cladding, ceilings, bathrooms, kitchens and balconies, shutters, doors...

(2).Exterior: wall cladding, facades, roofing, canopies, tunnels,column covers , renovations...

(3).Advertisement: display platforms, signboards, fascia, shop fronts...

 

4.    Feature of EN AW - 3004 PVDF Aluminium Composite Panel

Surfact Quality :

 Be free from Oil Stain, Dent, Inclusion, Scratches, Stain, Oxide Dicoloration, Breaks, Corrosion, Roll Marks, Dirt Streaks and other defect which will interfere with use,

 

Mechenical Property:

Chemical Composite and Mechanical Property

 

5.    Certificate of EN AW - 3004 PVDF Aluminium Composite Panel

SGS and ROHS(if client request, paid by client), MTC(plant provided), Certificate of Origin(FORM A, FORM E, CO),  Bureau Veritas and SGS (if client request, paid by client), CIQS certificate

 

6.    Image of EN AW - 3004 PVDF Aluminium Composite Panel

 

EN AW - 3004 PVDF Aluminium Composite Panel

EN AW - 3004 PVDF Aluminium Composite Panel

EN AW - 3004 PVDF Aluminium Composite Panel

 

 

 7.    Package and shipping of EN AW - 3004 PVDF Aluminium Composite Panel

First, plastic cloth with drying agent inside; Second, Pearl Wool ; Third, wooden cases with dry agent , fumigation wooden pallets, aluminum surface could cover blue PVC film

 

8.    FAQ

1) What is the delivery time?

Depends on actual order, around 20 to 35 days

2) What is the QC system:

We have QC staff of 20 persons and advanced equipment, each production is with MTC traced from Aluminum ingot lot.

3) What market do you mainly sell to?

Australia, America, Asia, Middle East, Western Europe, Africa etc

 

 

 

 

 

 

 

Q: Is it possible to repurpose or reuse old aluminum foil for various uses?
<p>Yes, old aluminum foil can be repurposed for various uses. It can be recycled, used as a makeshift scrubber for cleaning, or as a reflector for grilling. You can also use it to cover food for storage or as a barrier in gardening to deter pests. However, it's important not to reuse foil that has held acidic or sugary foods, as it can corrode and release aluminum into the food. Always ensure the foil is clean and in good condition before repurposing.</p>
Q: Is aluminum a suitable material for manufacturing bicycles and other lightweight vehicles?
<p>Yes, aluminum is a popular material for making bicycles and other lightweight vehicles due to its high strength-to-weight ratio. It is lightweight, durable, and resistant to corrosion, which makes it an excellent choice for components that need to be strong yet not add excessive weight. Aluminum frames are commonly used in bicycles because they offer a good balance between weight, stiffness, and cost. Additionally, aluminum is widely used in the manufacturing of other lightweight vehicles such as electric scooters, small cars, and even aircraft due to its favorable properties.</p>
Q: What is the measure of aluminum's strength, specifically its yield strength and tensile strength?
<p>Aluminum's strength is typically measured in terms of its yield strength and tensile strength. The yield strength of aluminum varies depending on the alloy and heat treatment, but it generally ranges from 10 to 45 MPa. Tensile strength, which is the maximum stress that aluminum can withstand before breaking, is typically between 90 to 600 MPa for different aluminum alloys. These values make aluminum a lightweight yet strong material suitable for various applications, including construction, automotive, and aerospace industries.</p>
Q: Explain the impact of aluminum on manufacturing processes in a few sentences.
<p>The use of aluminum significantly affects manufacturing processes by offering several advantages. It is lightweight, which reduces the weight of products and can lead to fuel efficiency in transportation sectors. Aluminum's high strength-to-weight ratio makes it ideal for structural components. Its excellent thermal and electrical conductivity allows for efficient heat dissipation and electrical transmission. Additionally, aluminum is non-magnetic and non-corrosive, which is beneficial for certain applications. The metal is also easily recyclable, contributing to sustainability in manufacturing. These properties make aluminum a popular choice in industries such as automotive, aerospace, construction, and electronics, enhancing the efficiency and performance of manufacturing processes.</p>
Q: This question asks about the impact of adding magnesium to aluminum alloys and how it changes their characteristics.
<p>The addition of magnesium to aluminum alloys significantly improves their mechanical properties, particularly strength and rigidity. Magnesium enhances the alloy's resistance to corrosion and increases its formability. It also contributes to better weldability and reduces the likelihood of hot cracking during the welding process. However, the addition of magnesium can also lead to a decrease in electrical conductivity and may increase the alloy's susceptibility to stress corrosion cracking. The overall effect of magnesium on aluminum alloys is to create a material that is lighter, stronger, and more resistant to environmental degradation, making it suitable for various applications in the aerospace, automotive, and construction industries.</p>
Q: This question asks about the energy consumption involved in the recycling process of aluminum.
<p>Recycling aluminum requires significantly less energy compared to producing aluminum from raw materials. It takes about 5% of the energy needed to produce new aluminum from bauxite ore. This energy efficiency is due to the fact that recycling aluminum involves melting down the metal, which requires less energy than the extraction and refining processes involved in primary production. The exact amount of energy saved can vary depending on factors such as the purity of the recycled material and the efficiency of the recycling process, but overall, recycling aluminum is a much more energy-efficient method than mining and refining new aluminum.</p>
Q: This question asks about the method to determine the strength of aluminum alloy, which is a measure of its ability to withstand stress or deformation before breaking.
<p>The strength of aluminum alloy is calculated through a series of mechanical tests, primarily the tensile test. In this test, a sample of the alloy is subjected to a gradually increasing tensile force until it fractures. The yield strength is noted at the point where the alloy begins to deform plastically, and the ultimate tensile strength (UTS) is recorded at the point of fracture. The strength is expressed in units of stress (e.g., MPa or psi). Additionally, the hardness of the alloy can be measured using tests like the Brinell or Rockwell hardness test. These values, along with other properties like elongation and reduction of area, provide a comprehensive understanding of the alloy's strength and ductility.</p>
Q: This question asks for examples of how recycled aluminum can be utilized.
<p>Recycled aluminum has numerous applications, including the manufacturing of beverage cans, automotive parts, construction materials, and electronic components. It is also used in the production of aluminum foil, packaging materials, and various household items. Recycled aluminum is valued for its durability, lightweight properties, and energy efficiency in production, making it an environmentally friendly choice for many industries.</p>
Q: Is it possible to utilize aluminum in the construction or components of electronic devices?
<p>Yes, aluminum is commonly used in electronic devices. It is valued for its lightweight, high thermal conductivity, and corrosion resistance. Aluminum is often used in heat sinks to dissipate heat from electronic components, as well as in the casings of devices for structural support and durability. Additionally, aluminum is used in the manufacturing of electrolytic capacitors and serves as a conductive material in various electronic components due to its good electrical conductivity.</p>
Q: This question asks about the process of manufacturing aluminum foil.
<p>Aluminum foil is made through a process that begins with the extraction of aluminum from its ore, bauxite. The bauxite is first refined to produce aluminum oxide, which is then reduced to aluminum metal using the Hall-H茅roult process. The aluminum is then melted and cast into large ingots. These ingots are heated and rolled into thin sheets in a series of passes through large rolling mills. As the metal cools, it hardens, and the thickness of the sheet is progressively reduced. The final thin sheets are then cut and packaged as aluminum foil. This process requires precision and control to achieve the desired thickness and quality of the foil.</p>

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