Aluminum Deep Drawing Direct Casting Aluminum Circle

Aluminum Deep Drawing Direct Casting Aluminum Circle

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Loading Port:: Shanghai

Payment Terms:: TT OR LC

Min Order Qty:: 4 m.t.

Supply Capability:: 100000 m.t./month

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Aluminum Circle in DC- Direct Casting for Deep Drawing

1.Structure of Aluminum Circle in DC- Direct Casting for Deep Drawing：

Aluminim Circle for Cookware is widely used for kitch, including fried pans, non-sticky pans, cooking pots, hard anodize cook wire, pressure cooker and house hold utensils.. Aluminim Circle for Cookware is hard for the deep draw and spinning. You can choose the alloys as your habitation and we will do our best to meet your requests.

2.Main Features of the Aluminum Circle in DC- Direct Casting for Deep Drawing：

• High manufacturing accuracy

• Smooth surface

•No waves

• High strength of extension and yield

• Well packaged

3. Aluminum Circle in DC- Direct Casting for Deep Drawing

Aluminum Circle in DC- Direct Casting for Deep Drawing

4. Aluminum Circle in DC- Direct Casting for Deep Drawing

Alloy	AA1050,AA1060,AA1100 AA3003etc.
Temper	O,H14
Thickness	0.5MM-4MM
Diagonal	100-1200MM
Standard	GB/T 3880-2006

5.FAQ

We have organized several common questions for our clients，may help you sincerely：

① How about your company？

A world class manufacturer & supplier of aluminum coil and alloy blanks. Aluminum production base is comprised of 18 aluminum annealers, 10 coil and foil mills, 4 continuous production lines, 2 hot rolling production line and 3 prepainted lines.

Export 5000 tons per month to Asia, America and Middle East. Always do the best for our clients.

②Can you guarantee the quality of the products？

We are responsible for the quality of materials to get a long-term cooperation with clients in a reasonable period of time and we are glad to arrange and coordinate any third party inspection for you.

③What is the delivery time after purchase?

35 day after receiving client’s deposit or correct LC

Q: This question asks for methods to determine the presence of aluminum in an alloy.: To determine if an alloy contains aluminum, one can use various analytical techniques. A common method is spectroscopy, which can identify the presence of specific elements by analyzing the wavelengths of light absorbed or emitted. Another approach is the use of a spark test, where a sample is struck against a grinding wheel to produce sparks; the color and pattern of these sparks can indicate the presence of aluminum. Chemical tests, such as the reaction with sodium hydroxide, can also be used, as aluminum reacts with NaOH to produce hydrogen gas. Lastly, X-ray fluorescence (XRF) is a non-destructive technique that can accurately determine the elemental composition of an alloy, including aluminum content.

Q: Is it possible to utilize aluminum as a material for automotive construction?: Yes, aluminum is commonly used in cars. It is valued for its lightweight properties, which can improve fuel efficiency and reduce emissions. Aluminum is used in various parts of a vehicle, including engine components, body panels, and suspension systems. Its high strength-to-weight ratio and resistance to corrosion make it an ideal material for automotive applications.

Q: This question asks about the chemical reaction between aluminum and elements in the halogen group.: Aluminum reacts with halogens to form aluminum halides. The reaction is typically exothermic and can be represented by the general equation: 2Al + 3X2 鈫?2AlX3, where X represents a halogen (fluorine, chlorine, bromine, iodine, or astatine). For example, when aluminum reacts with chlorine, it forms aluminum chloride (AlCl3). The reaction is often initiated by heating the aluminum, which is then rapidly oxidized by the halogen. This process is used industrially to produce aluminum halides, which are important in various chemical applications.

Q: This question asks about the amount of energy needed to produce aluminum.: The energy required for the production of aluminum is substantial. Producing one ton of aluminum typically requires around 15-25 kilowatt-hours of electricity, largely due to the process of electrolysis, which is used to extract aluminum from its ore, bauxite. This high energy consumption is a significant factor in aluminum production costs and environmental impact. The energy required can vary based on the efficiency of the smelting process and the source of electricity used.

Q: This question asks for recent applications of aluminum in the transportation industry.: Aluminum has found new uses in transportation due to its lightweight and high strength properties. It's increasingly used in electric vehicles to reduce weight and extend battery life. Aluminum alloys are also utilized in the construction of high-speed trains and aircraft to improve fuel efficiency and performance. In addition, aluminum is employed in the manufacturing of automotive parts such as engine components, wheels, and body panels. Furthermore, it's used in the production of lightweight bicycles and other transportation infrastructure like bridges and road signs. The trend towards more sustainable and efficient transportation continues to drive innovative uses for aluminum.

Q: What are the potential dangers of utilizing high-purity aluminum powders in industrial settings?: Yes, there are risks associated with using high-purity aluminum powders in manufacturing processes. These powders can be highly reactive, especially when in fine particle form, and pose a risk of dust explosions if they come into contact with an ignition source. Additionally, aluminum dust can be a respiratory hazard, potentially causing health issues if inhaled. Proper handling, storage, and safety measures are crucial to mitigate these risks.

Q: What are the differences between Aluminum Oxide and Aluminum Alloy in terms of their properties and applications?: Aluminum Oxide and Aluminum Alloy are distinct materials with different properties and uses. Aluminum Oxide, also known as alumina, is a ceramic material with a high melting point, hardness, and electrical insulation properties. It's used in abrasives, electronics, and as a refractory material. In contrast, Aluminum Alloys are composites of aluminum with other elements like copper, magnesium, or silicon, which enhance their strength, corrosion resistance, and malleability. They are widely used in construction, automotive, aerospace, and packaging due to their lightweight and durability.

Q: Is it possible to recycle aluminum from old products to create new ones?: Yes, aluminum can be recycled to make new products from old ones. Recycling aluminum is a highly efficient process that requires only 5% of the energy needed to produce new aluminum from raw materials. This process is not only environmentally friendly but also economically viable. Recycled aluminum maintains its quality and can be used to create a wide range of new products, from cans and packaging to automotive parts and construction materials.

Q: This question asks for an overview of the various types of aluminum alloys that exist.: Aluminum alloys are categorized into several series based on their primary alloying elements. The main types include: 1. 1xxx series: Pure aluminum alloys with 99.00% minimum aluminum content. 2. 2xxx series: Aluminum-copper alloys, known for their high strength. 3. 3xxx series: Aluminum-manganese alloys, which offer good formability and moderate strength. 4. 4xxx series: Aluminum-silicon alloys, used for welding wire and filler materials. 5. 5xxx series: Aluminum-magnesium alloys, characterized by good formability and corrosion resistance. 6. 6xxx series: Aluminum-silico-magnesium alloys, known for their high strength and excellent machinability. 7. 7xxx series: Aluminum-zinc-magnesium alloys, which are the strongest and most widely used in the aerospace industry. These alloys have various applications based on their unique properties, such as strength, corrosion resistance, and formability.

Q: What are the ecological effects and consequences of producing aluminum?: The environmental impact of aluminum production is significant and multifaceted. It involves high energy consumption, primarily from the electricity needed for the electrolytic process to extract aluminum from bauxite. This contributes to greenhouse gas emissions, particularly if the electricity is generated from fossil fuels. The process also generates hazardous waste, such as red mud, which contains heavy metals and can pollute water sources if not properly managed. Additionally, deforestation and habitat destruction occur due to bauxite mining, affecting biodiversity. Lastly, aluminum production contributes to air pollution with the release of particulates and other pollutants.

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