Aluminum Lamination Packaging Foilstock System 1

Aluminum Lamination Packaging Foilstock

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Loading Port:: China Main Port

Payment Terms:: TT or LC

Min Order Qty:: 20Tons m.t.

Supply Capability:: 10000Tons Per Month m.t./month

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Quick details of Aluminum Foilstock For Lamination Packaging Foil

Application:	Cigarette Package, Aseptic Package, Pouches, Sachets
Alloy:	1235/8011/8079
Temper:	O
Thickness & Tolerance:	0.006mm-0.009mm (±6%)
Width & Tolerance:	200mm-1650mm (±1mm)
Mechanical Properties:	Tensile Strength(U.T.S)≥40Mpa, Elongation≥1%
Standard:	GB/T3198 / ASTM-B209 / EN546

Usage/Application of Aluminum Foilstock For Lamination Packaging Foil

Used for flexible packaging, cigarette packages, aseptic packages, pouches, sachets.

Packaging & Delivery of Aluminum Foilstock For Lamination Packaging Foil

Packing: seaworthy wooden box with pallet

Delivery: to be loaded by 1 x 20 feet container

Q: This question asks for typical applications of aluminum foil in everyday life.: Aluminum foil is commonly used for food storage and preservation, as it can be wrapped around food to keep it fresh. It's also widely used in cooking, particularly for baking and roasting, to prevent food from sticking to pans or to seal in moisture and flavor. Beyond culinary uses, aluminum foil is employed in arts and crafts for creating 3D structures or as a reflective surface. It's also used in insulation, as a barrier in construction, and for packing and wrapping items to protect them during shipping. Additionally, aluminum foil is utilized in various industrial processes due to its heat resistance and malleability.

Q: Is it possible to recycle old aluminum products and use them to create new aluminum products?: Yes, old aluminum products can be recycled and reused to make new ones. Recycling aluminum is a highly efficient process that conserves resources and energy. The recycling process involves melting down the old aluminum, which requires significantly less energy compared to extracting aluminum from raw materials. This makes aluminum one of the most recycled materials in the world, with a closed-loop recycling system that allows for continuous reuse without significant loss in quality.

Q: Is it possible for aluminum to penetrate the skin and be absorbed into the body?: Aluminum can be absorbed through the skin, but the rate and extent of absorption are generally low. The skin acts as a barrier and only allows minimal absorption of aluminum. Most aluminum exposure comes from ingestion, not dermal absorption. The body's ability to absorb aluminum can be influenced by factors such as the form of aluminum, the condition of the skin, and the duration of exposure. However, it's important to note that aluminum is commonly found in everyday products and is generally considered safe in the amounts typically encountered.

Q: Is it possible to use pure aluminum to create tools and equipment with increased longevity?: Pure aluminum is not typically used for making tools and equipment that require durability and strength. While it is lightweight and corrosion-resistant, pure aluminum is relatively soft and lacks the strength needed for most tools and equipment. Alloys of aluminum, which combine aluminum with other elements like copper, magnesium, or silicon, are often used instead. These alloys offer improved strength, hardness, and wear resistance, making them more suitable for long-lasting tools and equipment.

Q: Explain the natural relationship between aluminum and magnesium, focusing on their abundance and reactivity in the Earth's crust.: Aluminum and magnesium are both abundant elements in the Earth's crust, with aluminum being the most abundant metal and magnesium being the eighth most abundant element overall. They are often found in close association within the same minerals, such as in aluminosilicates and some carbonates. Both elements are highly reactive, forming compounds readily with oxygen to create oxides and silicates. However, they differ in their reactivity with water; aluminum forms a protective oxide layer that prevents further reaction, while magnesium reacts more readily with water to form magnesium hydroxide. This difference in reactivity influences their distribution and the types of compounds they form in nature.

Q: Describe the process of electrolysis used in aluminum production.: The process of electrolysis for aluminum production involves the Hall-H茅roult process, which is the primary method for extracting aluminum from its ore, bauxite. First, bauxite is refined to produce aluminum oxide (alumina). This alumina is then dissolved in a molten cryolite bath, which lowers the melting point and increases the electrical conductivity. Large amounts of electricity are passed through the bath, causing the alumina to decompose into aluminum metal and oxygen gas. The aluminum collects at the bottom of the cell and is periodically tapped off, while the oxygen is released into the atmosphere. This energy-intensive process is crucial for the aluminum industry, as it allows for the production of large quantities of aluminum, a key material in various industries.

Q: Explain how the incorporation of titanium into aluminum alloys influences their properties and strength.: Adding titanium to aluminum alloys significantly enhances their mechanical properties and strength. Titanium increases the alloy's strength, hardness, and resistance to corrosion. It also improves the alloy's creep resistance, which is crucial for high-temperature applications. The addition of titanium refines the grain structure, leading to better ductility and toughness. Moreover, titanium helps to reduce the likelihood of stress-corrosion cracking, making the alloy more reliable in aggressive environments. Overall, titanium-aluminum alloys are stronger, more durable, and have a wider range of applications than pure aluminum or simple aluminum alloys.

Q: This question asks for an explanation of the steps involved in producing aluminum.: The production process of aluminum primarily involves two stages: extraction from bauxite and refining. Initially, bauxite ore, the primary source of aluminum, is mined and then processed to remove impurities. The refined bauxite is then mixed with a hot caustic soda solution in a process called the Bayer Process, which extracts aluminum oxide (alumina). In the second stage, alumina is dissolved in molten cryolite and subjected to an electrolytic reduction process in a Hall-H茅roult cell. This involves passing an electric current through the molten mixture, causing the aluminum oxide to decompose and release pure aluminum, which collects at the bottom of the cell. The aluminum is then tapped off, cooled, and cast into various forms for further processing or use.

Q: Describe the steps involved in the manufacturing of aluminum sheets.: The process of manufacturing aluminum sheets involves several key steps. Initially, aluminum ore, typically bauxite, is mined and then processed to remove impurities. The purified aluminum oxide is then dissolved in a cryolite bath at high temperatures, a process known as the Hall-H茅roult process. This results in molten aluminum, which is then cast into ingots. These ingots are reheated and passed through rollers to gradually reduce their thickness, creating aluminum sheets. The sheets are then cooled, cut to size, and may undergo further treatments like annealing or coating, depending on their intended use. The final product is a flat, thin sheet of aluminum ready for various applications.

Q: This question asks for the specific temperature at which aluminum oxide transitions from a solid to a liquid state.: The melting point of aluminum oxide (Al2O3) is approximately 2072掳C (3767.6掳F). It is a high melting point due to the strong ionic bonds between aluminum and oxygen atoms in the crystal structure. This high melting point makes aluminum oxide a common material in high-temperature applications such as refractory materials and abrasives.

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