• Aluminum Household Aluminium Foil for Flexible Packaging System 1
  • Aluminum Household Aluminium Foil for Flexible Packaging System 2
  • Aluminum Household Aluminium Foil for Flexible Packaging System 3
Aluminum Household Aluminium Foil for Flexible Packaging

Aluminum Household Aluminium Foil for Flexible Packaging

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Loading Port:
China Main Port
Payment Terms:
TT or LC
Min Order Qty:
3Tons m.t.
Supply Capability:
2000 Tons Per Month m.t./month

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Quick details of Household Aluminium Foil for Flexible Packaging

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 Household Aluminium Foil for Flexible Packaging

Used for Flexible Packaging, Cigarette Package, Aseptic Package, Pouches, Sachets

 

Packaging & Delivery of Household Aluminium Foil for Flexible Packaging

Packing: seaworthy wooden box with pallet

Delivery: to be loaded by 1 x 20 feet container

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Q: Is it possible to recycle aluminum cans and turn them into new cans?
<p>Yes, aluminum cans can be recycled into new ones. The recycling process involves melting the used cans, which is much less energy-intensive than extracting and refining new aluminum from bauxite ore. Once melted, the aluminum can be reshaped into new cans or other products. This process is not only environmentally friendly but also economically efficient, as it saves energy and reduces waste.</p>
Q: What other materials can be used as substitutes for aluminum in various applications?
<p>Alternative materials to aluminum include magnesium, which is lighter and often used in automotive and aerospace applications; titanium, known for its strength and corrosion resistance, though more expensive; copper, utilized for its excellent electrical conductivity; and steel, which is stronger and more durable but heavier. Additionally, composite materials like carbon fiber and fiberglass offer weight savings and high strength, though they can be more complex to manufacture. Each alternative has its own set of advantages and disadvantages depending on the specific application and requirements.</p>
Q: What safety measures should be taken into account while handling or working with aluminum?
<p>When working with aluminum, it's crucial to follow safety precautions to prevent injuries and health risks. Always wear appropriate personal protective equipment (PPE) such as gloves, safety glasses, and a dust mask to protect against aluminum dust. Ensure good ventilation to avoid inhaling aluminum dust or fumes. Use proper tools and equipment to handle aluminum, as it can become sharp and cause cuts. Be cautious when welding or cutting aluminum, as it can produce harmful fumes and sparks. Store aluminum in a dry place to prevent it from reacting with moisture. Lastly, be aware of the fire hazard associated with aluminum dust and take necessary fire safety measures.</p>
Q: Explain the distinction between pure aluminum and aluminum alloys, focusing on their composition and properties.
<p>Pure aluminum is composed of aluminum alone, with a high degree of purity, typically over 99%. It is soft, malleable, and has good thermal and electrical conductivity. Aluminum alloys, on the other hand, are made by combining aluminum with other elements such as copper, magnesium, or silicon to enhance their strength, durability, and resistance to corrosion. These alloys are harder than pure aluminum and can be tailored for specific applications, making them more versatile for industrial use.</p>
Q: This question asks about the various applications of aluminum in the construction industry.
<p>Aluminum is widely used in construction due to its lightweight, high strength, and corrosion resistance. It is commonly used in window frames, door frames, curtain walls, and roofing systems for its durability and energy efficiency. Aluminum is also utilized in structural components such as beams and columns, as well as in the manufacturing of prefabricated buildings. Additionally, it is used in the electrical wiring and conduits within buildings due to its excellent conductivity. Its versatility makes it a popular choice for both residential and commercial construction projects.</p>
Q: This question asks for the amount of energy needed to produce a single aluminum ingot.
<p>The energy required to produce an aluminum ingot varies based on production methods and efficiency. On average, it takes about 14 to 25 kWh of electricity to produce one kilogram of aluminum. This high energy consumption is due to the electrolytic process used to extract aluminum from its ore, bauxite. The Hall-H茅roult process is the dominant method, which involves passing an electric current through a bath of molten cryolite to reduce aluminum oxide to aluminum metal. Energy efficiency in aluminum production has been improving, but it remains a significant factor in the overall carbon footprint of aluminum products.</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 an explanation of the process involved in the production of aluminum foil.
<p>Aluminum foil is made through a process that starts with the extraction of aluminum from its ore, bauxite. The bauxite is refined to produce aluminum oxide, which is then reduced to aluminum 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 using large industrial rolling mills. The aluminum is rolled multiple times, each pass reducing its thickness until it reaches the desired foil thickness. The final thin sheets are then cut and packaged as aluminum foil. This process requires precision and control to ensure the foil is uniform and free of defects.</p>
Q: This question asks for examples of alloys that include aluminum as a primary component.
<p>Aluminum is a versatile metal that forms several common alloys used in various industries. Some of the most common aluminum alloys include: 1. 1000 series, which is pure aluminum with a high percentage of aluminum content. 2. 2000 series, known for their strength due to copper content. 3. 3000 series, which are non-heat-treatable alloys with good formability and are rich in manganese. 4. 5000 series, characterized by their magnesium content, making them strong and resistant to corrosion. 5. 6000 series, which are heat-treatable and contain silicon and magnesium, offering good mechanical properties. 6. 7000 series, the strongest aluminum alloys, containing zinc as the primary alloying element. These alloys are widely used in aerospace, automotive, construction, and other industries due to their lightweight and strength.</p>
Q: Is there an alternative method for recycling aluminum besides the conventional process?
<p>Yes, aluminum can be recycled using different processes. While the conventional process involves melting and recasting, alternative methods include mechanical recycling, which involves shredding and reusing aluminum without melting, and chemical recycling, which breaks down aluminum into its base elements and reassembles them into new products. These methods can be more energy-efficient and environmentally friendly, depending on the specific circumstances and technologies used.</p>

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