Air Conditioner Aluminum Coil for Cooker Aluminium Circle

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1.alloy 1050 1060 3003.
2.temper O H12 H14.
3.high quality for deep drewing.
4.professional and specialized for 20 years.

1.Name: aluminium circle.

2.Alloy number: 1050 1060 3003.

3.Temper available: O H12 H14.

4.Application: cookware utensils, basin etc.

5.Process treatment: cold rolling and hot rolling.

6.Thickness: 0.5-6.0mm.

7.Diameter: 120-1300mm.

8.Package: in seaworthy wooden pallet or case and one ton per package.

9.Surface: mill finished,clean,flat,no wholes,no scratches, no oxidation.

10.Cutting edge: neat cutting edge with no burrs.

Q: What’s the production standard of aluminum coil?: GB/T3880-2006 mechanical standard GB/T3190-1996 chemical standard

Q: How do aluminum coils contribute to indoor air quality?: Aluminum coils used in heating, ventilation, and air conditioning (HVAC) systems do not directly contribute to indoor air quality. However, they play a crucial role in maintaining indoor air quality by helping to cool and dehumidify the air. By efficiently transferring heat and moisture, aluminum coils aid in controlling temperature and humidity levels, preventing the growth of mold, mildew, and other harmful microorganisms that can negatively impact indoor air quality.

Q: What is the typical thickness of aluminum coils?: The typical thickness of aluminum coils can vary depending on the specific application and industry. However, commonly used thicknesses range from 0.015 inches (0.38 mm) to 0.25 inches (6.35 mm).

Q: Can aluminum coils be used in heat exchanger fins?: Indeed, heat exchanger fins can utilize aluminum coils. Aluminum is widely preferred for heat exchangers owing to its remarkable thermal conductivity, lightweight properties, and resistance to corrosion. By incorporating aluminum coils into heat exchanger fins, the transfer of heat between two fluids becomes highly efficient, making it an ideal material for this specific purpose. Moreover, aluminum coils can be effortlessly shaped into different fin configurations, which allows for design flexibility and maximizes the surface area for heat transfer. All in all, aluminum coils are commonly employed in heat exchanger fins to boost heat transfer efficiency and enhance the overall performance of the heat exchanger system.

Q: Are there any restrictions on the coil length of aluminum coils?: Restrictions do exist regarding the length of aluminum coils. Typically, the maximum coil length is determined by the capabilities of the equipment utilized for coil production and handling. Several factors contribute to this determination, including the dimensions and capacity of coil winding machines, transportation and storage restrictions, and the coil's weight and stability. Moreover, longer coils may encounter increased handling and logistical challenges, such as heightened risk of damage during transportation or difficulties in uncoiling and processing. Consequently, it is crucial to take into account these restrictions and limitations when deciding on the suitable length for aluminum coils.

Q: Are aluminum coils available in different colors?: Yes, aluminum coils are available in different colors. The process of coloring aluminum coils involves coating the surface with a durable finish that can be in various colors. This coating is typically achieved through a process called coil coating, where the aluminum coil is cleaned, pre-treated, and then coated with a layer of paint or other colored material. This allows for a wide range of colors to be applied to the aluminum coils, providing flexibility in design and aesthetic options for various applications.

Q: How are aluminum coils used in the production of HVAC components?: Aluminum coils are used in the production of HVAC components as they serve as the heat transfer medium. These coils help in the efficient exchange of heat between the refrigerant and the surrounding air, facilitating the cooling or heating process. The aluminum material is lightweight, durable, and has excellent thermal conductivity, making it ideal for this purpose.

Q: Are aluminum coils resistant to chemicals?: Generally, chemicals do not pose a problem for aluminum coils due to their inherent resistance. This is because aluminum naturally develops a protective oxide layer on its surface, which shields it from various chemicals. Consequently, the oxide layer effectively prevents corrosion and deterioration of the aluminum coils when they come into contact with different substances. Nevertheless, it is worth mentioning that certain chemicals, particularly potent acids or alkalis, can still harm aluminum. In such instances, applying additional protective coatings or treatments becomes essential to strengthen the chemical resistance of the aluminum coils.

Q: Is it possible to utilize an electric iron that features an aluminum coil heater?: <p>Yes, you can use an electric iron with an aluminum coil heater. Aluminum coil heaters are commonly used in electric irons due to their excellent heat conductivity and quick heat-up time. They distribute heat evenly and maintain a consistent temperature, making them ideal for ironing. However, it's important to follow the manufacturer's guidelines for use and maintenance to ensure safety and longevity of the iron.</p>

Q: Some properties of aluminum are summarized in the following list.normal melting point 658°C heat of fusion 3.95 kJ/g normal boiling point 2467°C heat of vaporization 10.52 kJ/g specific heat of the solid 0.902 J/g°C Calculate the quantity of energy required to heat 1.58 mol of aluminum from 33°C to its normal melting point? In KJCalculate the quantity of energy required to melt 1.02 mol of aluminum at 658°C? In KJCalculate the amount of energy required to vaporize 1.02 mol of aluminum at 2467°C? In KJ: Calculate the quantity of energy required to heat 1.58 mol of aluminum from 33°C to its normal melting point in KJ- 1.58 mol x 26.98 g/mol x 0.902 J/g°C x (658 - 33)°C x 1 kJ/1000 J = 24.03 kJ Calculate the quantity of energy required to melt 1.02 mol of aluminum at 658°C In KJ- 1.02 mol x 26.98 g/mol x 3.95 kJ/g = 108.7 kJ Calculate the amount of energy required to vaporize 1.02 mol of aluminum at 2467°C In KJ- 1.02 mol x 26.98 g/mol x 10.52 kJ/g = 289.5 kJ

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