• 407c Aluminum Coil - AA 3003 Anodizing Aluminum Sheet System 1
  • 407c Aluminum Coil - AA 3003 Anodizing Aluminum Sheet System 2
  • 407c Aluminum Coil - AA 3003 Anodizing Aluminum Sheet System 3
  • 407c Aluminum Coil - AA 3003 Anodizing Aluminum Sheet System 4
407c Aluminum Coil - AA 3003 Anodizing Aluminum Sheet

407c Aluminum Coil - AA 3003 Anodizing Aluminum Sheet

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supply Mill-finished / coated aluminum sheet/ coil:


Alloy: AA1050,1060,1100,1200,2024,3003,3304,3005,3015,5052,5086,5754,5083,6061,7050,7475,8011, etc


Temper: O, H14/16/18/22/24/32/ H112/H321/T6,T851,T7451,T7351, etc


Thickness: 0.02mm20mm


Width: 100mm2000mm (Can be slitted)


Notice: PE coating / PVDF coating / Embossment can be done if required.


Q: Is aluminum veneer the same as color coated aluminum coil?
Not necessarily, but you may call it like this. Aluminum veneer is the panel processed by aluminum plant. It has different size and thickness according to customer’s requirements. Color coated aluminum coil has been coated through two processes of bake and roast, for example, the coil or sheet formed of the coating of cars.
Q: I need help with 3 main ideas for a aluminum and copper chloride lab. I need evidence for these 3 ideas that what happened was a chemical reaction.
Aluminum metal usually has a passivating layer of Al2O3 which prevents aluminum from reacting with Cu2+ ions. Al won't react with CuSO4(aq), for instance. But if NaCl is added then it will. It is the effect of the chloride ion that makes the reaction go. Al2O3(s) + 8Cl-(aq) + 3H2O -- 2[AlCl4]^- + 6OH- Once the passivating layer is dissolved, then aluminum metal is available to react with chloride ion. You see the aluminum metal disappear, while dark red Cu metal is formed, along with the decrease in the blue color due to hydrated copper ions, [Cu(H2O)6]^2+. In addition, aluminum metal has a side-reaction with water to form hydrogen gas. Therefore, you will observe that as gas is given off. Not only that, the temperature of the solution will increase. 2Al(s) + 2OH- + 6H2O -- 2[Al(OH)4]- + 3H2(g) In summary. There are four indicators of a chemical reaction. 1. The formation of a precipitate 2. The evolution of a gas 3. A color change 4. A temperature change. All four indicators are observed. Solid Cu metal is formed. Hydrogen gas is given off. The color of the solution changes from blue to colorless, and the temperature increases.
Q: which metal is very common today and which one will be most common in future. steel or aluminum
Currently, steel is very cheap but bulky and lacks variability. Aluminum is a lot more expensive, is lighter (cheaper transport), and has variability in use. For the future, however, we would start to use nanoribbon. Substantially smaller than a strand of hair and substantially stronger than steel.
Q: Are there any environmental benefits to using aluminum coils?
Yes, there are several environmental benefits to using aluminum coils. Firstly, aluminum is a highly sustainable material as it is 100% recyclable without losing its original properties. This means that using aluminum coils helps reduce the demand for mining and extracting new raw materials, reducing the environmental impact associated with these processes. Additionally, recycling aluminum requires only about 5% of the energy needed to produce primary aluminum, resulting in significant energy savings and reduced greenhouse gas emissions. Moreover, aluminum coils have a longer lifespan compared to other materials commonly used in coils, such as copper or steel. This durability means that fewer coils need to be manufactured and replaced over time, resulting in less waste generation and lower overall environmental impact. Furthermore, aluminum is corrosion-resistant, which eliminates the need for additional treatments or coatings that may contain harmful chemicals. This reduces the release of potentially hazardous substances into the environment during the manufacturing and use of aluminum coils. Lastly, aluminum is lightweight, which contributes to lower transportation costs and energy consumption during distribution. This aspect decreases fuel consumption and associated emissions, reducing the overall carbon footprint of using aluminum coils. Considering these factors, the use of aluminum coils provides significant environmental benefits, including reduced resource extraction, energy conservation, waste reduction, and lower emissions.
Q: What is the modulus of elasticity of aluminum coils?
Young's modulus, which is also referred to as the modulus of elasticity, quantifies the stiffness and resistance to deformation of aluminum coils when subjected to an external force. Typically, the modulus of elasticity for aluminum coils falls around 70 GPa (gigapascals) or 10 million psi (pounds per square inch). However, this value can slightly fluctuate depending on the particular alloy and temper of the aluminum utilized in the coils. Consequently, the modulus of elasticity plays a crucial role in determining the durability and malleability of aluminum coils, making it a significant consideration in various sectors such as construction, automotive, and aerospace industries.
Q: How are aluminum coils tested for thickness and flatness?
Aluminum coils are tested for thickness and flatness using various methods to ensure they meet the required specifications. One common method is the non-destructive eddy current testing, which involves passing an alternating current through a coil and measuring the changes in the magnetic field caused by eddy currents induced in the aluminum. These changes can be used to determine the thickness of the coil. In addition to eddy current testing, ultrasonic testing is also employed to measure the thickness of aluminum coils. Ultrasonic waves are sent through the coil, and the time it takes for the waves to bounce back is measured to determine the thickness. This method is highly accurate and can identify any variations in thickness across the entire coil. To assess the flatness of aluminum coils, a straight edge or a laser beam is often used. The coil is placed on a flat surface, and the straight edge or laser beam is placed across the surface of the coil. Any deviations from a perfectly flat surface can be easily identified by observing the gaps or irregularities between the coil and the straight edge or laser beam. In some cases, advanced technologies like laser profilometry can be used to create a three-dimensional map of the surface of the coil, allowing for a comprehensive analysis of its flatness. This method provides highly detailed information about any variations in flatness across the coil's surface. Overall, aluminum coils undergo rigorous testing procedures to ensure their thickness and flatness meet the required standards. These tests are vital in maintaining the quality and reliability of aluminum coils, especially in applications where precision and consistency are of utmost importance.
Q: What are the different types of protective coatings for aluminum coils?
Aluminum coils can benefit from various protective coatings to boost their durability and lifespan while safeguarding against environmental elements. 1. Polyester Coatings: With their exceptional UV ray and weather resistance, polyester coatings are widely utilized for aluminum coils. They offer vibrant color retention and a broad spectrum of color options, making them ideal for applications where aesthetics matter, such as in architecture. 2. Polyvinylidene Fluoride (PVDF) Coatings: Renowned for their exceptional resistance against fading, chalking, and chemical exposure, PVDF coatings are suitable for harsh environments. They exhibit high weatherability and can withstand extreme temperatures, making them commonly used in industrial and commercial settings. 3. Epoxy Coatings: Epoxy coatings present robust adhesion and excellent corrosion resistance. They act as a protective barrier against moisture and chemicals, making them well-suited for applications where the coils may encounter harsh conditions, particularly in marine and industrial settings. 4. Acrylic Coatings: Acrylic coatings offer good adhesion and flexibility. They provide moderate weather resistance and can be easily applied and repaired. Acrylic coatings find applications in various sectors, including automotive and general industrial uses. 5. Polyurethane Coatings: Polyurethane coatings showcase outstanding resistance to abrasion, chemicals, and weathering. They offer exceptional durability and are commonly employed in demanding applications where the coils may face harsh conditions or heavy wear. 6. Silicone Coatings: Silicone coatings boast remarkable resistance to extreme temperatures and UV exposure. They exhibit excellent weatherability and can endure prolonged exposure to sunlight without degradation. Silicone coatings are frequently utilized in automotive parts and outdoor equipment. The selection of the appropriate protective coating should be based on the specific requirements of the aluminum coils and the intended application. Factors to consider include the desired level of protection, appearance, and the environmental conditions to which the coils will be exposed.
Q: What are the different protective film options for aluminum coils?
Some different protective film options for aluminum coils include polyethylene films, polyvinyl chloride (PVC) films, and polypropylene films. These films are designed to provide temporary protection during transportation, handling, and storage, preventing scratches, abrasions, and other damages. The choice of protective film depends on factors such as the specific application, environmental conditions, and desired level of protection.
Q: This question asks about the distinctions among various grades of aluminum coils, likely referring to their properties and uses.
<p>Aluminum coils are differentiated by grades based on their alloy composition, thickness, and specific applications. Common grades include 1000 series (99% pure aluminum, soft and malleable), 3000 series (aluminum-manganese alloys, good for cooking utensils), 5000 series (aluminum-magnesium alloys, used in marine applications), and 6000 series (aluminum-magnesium-silicate alloys, known for strength and used in construction). Each grade has distinct properties such as strength, formability, and corrosion resistance, which determine their suitability for different industries and applications.</p>
Q: Are there any limitations to using aluminum coils?
Yes, there are certain limitations to using aluminum coils. One limitation is that aluminum has a lower tensile strength compared to other metals like steel, making it more prone to damage or deformation under heavy loads or impacts. Additionally, aluminum coils can be susceptible to corrosion if not properly protected or coated. Finally, aluminum coils may not be suitable for applications that require high electrical conductivity, as aluminum has a lower conductivity compared to copper.

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