• Aluminum Ingot  with Good Price and Good Quality System 1
  • Aluminum Ingot  with Good Price and Good Quality System 2
  • Aluminum Ingot  with Good Price and Good Quality System 3
Aluminum Ingot  with Good Price and Good Quality

Aluminum Ingot with Good Price and Good Quality

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Loading Port:
China main port
Payment Terms:
TT OR LC
Min Order Qty:
1000 m.t.
Supply Capability:
10000 m.t./month

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Pure Aluminum Ingot Used for Industry

 

1.Structure of Aluminum Ingot Description

 

Aluminum Ingot is with the AL as the main chemical composition. Aluminum Ingot is used for industry,such as automobile,pinning and weaving,electron broadly and so on.  Aluminum Ingot has the following advantages: easy control and operation, fast melting.


2.Main Features of the Aluminum Ingot

 

High Purity

Easy control and operation 
High strength

Fast melting

Competitive price

Best Service

 

3. Aluminum Ingot Images

Aluminum Ingot  with Good Price and Good Quality

Aluminum Ingot  with Good Price and Good Quality



 

4. Aluminum Ingot Specification

 

Grade

Chemical   Composition   %

Al≥

impurities ≤

Si

Fe

Cu

Ga

Mg

Zn

Mn

others

Sum

Al99.9

99.90

0.50

0.07

0.005

0.02

0.01

0.025

-

0.010

0.10

Al99.85

99.85

0.80

0.12

0.005

0.03

0.02

0.030

-

0.015

0.15

Al99.7

99.70

0.10

0.20

0.010

0.03

0.02

0.030

-

0.030

0.30

Al99.6

99.60

0.16

0.25

0.010

0.03

0.03

0.030

-

0.030

0.40

Al99.5

99.50

0.22

0.30

0.020

0.03

0.05

0.050

-

0.030

0.50

Al99.00

99.00

0.42

0.50

0.020

0.03

0.05

0.050

-

0.050

1.00

 

5.FAQ of Aluminum Ingot

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


①How about your company?

A world class manufacturer & supplier of castings forging in carbon steel and alloy steel,is one of the large-scale professional investment casting production bases in China,consisting of both casting foundry forging and machining factory. Annually more than 8000 tons Precision casting and forging parts are exported to markets in Europe,America and Japan. OEM casting and forging service available according to customers requirements.


②How to guarantee the quality of the products?

We have established the international advanced quality management system,every link from raw material to final product we have strict quality test;We resolutely put an end to unqualified products flowing into the market. At the same time, we will provide necessary follow-up service assurance.


③How long can we receive the product after purchase?

In the purchase of product within three working days, We will arrange the factory delivery as soon as possible. The pecific time of receiving is related to the state and position of customers.Commonly 7 to 10 working days can be served.

Q: How are aluminum ingots extracted from bauxite ore?
Aluminum ingots are extracted from bauxite ore through a process called the Bayer process. This process involves several steps: 1. Mining: Bauxite ore is typically found near the Earth's surface and is usually extracted through open-pit mining. The ore is then transported to a processing plant for further preparation. 2. Crushing and Grinding: The bauxite ore is crushed and ground into fine particles. This step increases the surface area of the ore, allowing for better extraction of aluminum during the digestion process. 3. Digestion: The crushed and ground bauxite ore is mixed with a hot caustic soda solution in large pressure vessels called digesters. This mixture is heated and stirred, causing a chemical reaction where aluminum oxide (alumina) in the bauxite ore dissolves into the caustic soda solution. Other impurities in the ore, such as iron oxides, silica, and titanium oxide, also dissolve or transform into soluble compounds. 4. Clarification: The resulting mixture, called a slurry, is then passed through a series of settlement tanks to separate the solid impurities from the liquid. The settled solids, known as red mud, are removed, while the clarified liquid, containing dissolved alumina, is collected. 5. Precipitation: The dissolved alumina in the liquid is cooled and then treated with additional chemicals to cause crystallization. This process allows the alumina to precipitate out as fine particles. 6. Calcination: The precipitated alumina is then heated to high temperatures in a kiln, a process known as calcination. This step removes any remaining water and transforms the alumina into a more stable form called alumina trihydrate. 7. Smelting: The alumina trihydrate is then heated in special furnaces, where it undergoes a process called smelting. The heat causes the alumina to decompose, releasing oxygen and leaving behind pure aluminum oxide. 8. Electrolysis: The aluminum oxide is dissolved in a molten cryolite bath, and an electric current is passed through the bath. This process, known as electrolysis, causes the aluminum ions to migrate to the cathode, where they are reduced and deposited as molten aluminum. The molten aluminum is then cast into ingots or other desired shapes. Overall, the extraction of aluminum ingots from bauxite ore involves a series of chemical and physical processes, which aim to separate the aluminum from other impurities and convert it into a usable form.
Q: What are the basic equipments for the production of aluminium ingots?
Pay attention to points can also be added on the basis of: mixing equipment, feeding equipment, sorting equipment, online degassing, etc..
Q: What are the different extrusion processes for aluminum ingots?
Aluminum ingots can undergo various extrusion processes, each with distinct characteristics and applications. Some commonly employed methods for aluminum extrusion are: 1. The most widely used process for aluminum ingots is direct extrusion. It involves heating the ingot and pushing it through a die using a ram or hydraulic press. The material flows in the same direction as the ram, resulting in a continuous profile with a consistent cross-section. 2. Indirect extrusion, on the other hand, utilizes a stationary die and a hollow ram to force the ingot through the die. The material flows in the opposite direction of the ram, resulting in a profile with superior surface finish and improved mechanical properties. 3. Impact extrusion is employed to create hollow shapes like tubes or containers. It entails striking a punch against the ingot, causing the metal to flow around the punch and form the desired shape. Impact extrusion is ideal for high-volume production of small parts. 4. Unlike the aforementioned processes that involve heating, cold extrusion is conducted at room temperature. The ingot is placed in a die and compressed using a hydraulic press or mechanical force. Cold extrusion is particularly useful for producing intricate shapes with precise tolerances and excellent surface finish. 5. Hydrostatic extrusion necessitates placing the ingot in a sealed chamber filled with a liquid, typically oil or water. Pressure is exerted on the liquid, which then applies even pressure on the ingot. This method is often employed for extruding alloys with low ductility or complex shapes. Each extrusion process presents its own advantages and limitations, and the choice depends on factors such as the desired product shape, material properties, production volume, and cost considerations.
Q: How are impurities removed from aluminum ingots?
The elimination of impurities from aluminum ingots is achieved through a process called refining or purification. Various methods are utilized for this purpose, which include the following: 1. Fluxing: To react with the impurities, molten aluminum is combined with fluxes like chlorine or sodium chloride. This reaction produces compounds that can be easily eliminated as slag or dross. 2. Electrolytic refining: Impure aluminum ingots are immersed in an electrolyte solution and subjected to an electric current in this technique. The impurities are drawn towards the anode, where they accumulate as a residue, while the purified aluminum collects at the cathode. 3. Centrifugal separation: Molten aluminum is spun in a centrifuge, causing the denser impurities to migrate towards the outer edge. The purified aluminum is then collected from the center. 4. Filtration: Solid impurities in the molten aluminum can be eliminated through filtration. Filters made of materials like ceramic or graphite are used, which trap the impurities while allowing the purified aluminum to pass through. 5. Vacuum treatment: Molten aluminum undergoes a vacuum environment in this method, aiding in the removal of volatile impurities such as hydrogen and low-boiling-point metals. The reduced pressure facilitates the removal of these impurities through vaporization. It is crucial to consider various factors, such as the type and concentration of impurities, the desired level of purity, and the cost-effectiveness of the chosen process, when selecting a specific method for impurity removal. Different industries and applications may require different levels of purity, thus leading to variations in the refining process.
Q: What type of spectrometer is used to analyze aluminium ingots?
If it is an ordinary aluminum ingot, two or three 9, with direct reading spectrometer can be done. It is better to choose the imported equipment with stability and repeatability.
Q: What are the main factors influencing the choice between aluminum ingots and aluminum wires?
The choice between aluminum ingots and aluminum wires is determined by several key factors: intended use, cost, and convenience. To begin with, the intended use of the aluminum product plays a significant role in determining whether ingots or wires are more suitable. In manufacturing processes, aluminum ingots are commonly used as raw materials that can be melted and cast into various shapes like sheets, bars, or profiles. They find applications in industries such as construction, automotive, and aerospace. On the other hand, aluminum wires are primarily used for electrical purposes like wiring systems, power transmission, and electrical components. Hence, the specific purpose of the aluminum product needed greatly influences the choice between ingots and wires. Moreover, cost is an important factor to consider. Aluminum ingots generally have a lower cost compared to aluminum wires. This is because ingots are the basic form of aluminum and require additional processing to become wires, involving extra manufacturing steps and costs. However, it is crucial to take into account the overall project requirements. Using aluminum wires directly may save costs associated with additional processing and labor. Lastly, convenience also plays a role in the decision-making process. Aluminum wires are readily available in the market, and they come in various sizes and specifications, making them easy to purchase. They are already in a usable form and can be directly installed or integrated into electrical systems. On the other hand, aluminum ingots may need further processing, such as melting, casting, and shaping, before they can be used in a specific application. Therefore, if time and resources are limited, aluminum wires may be a more convenient choice. In conclusion, the choice between aluminum ingots and aluminum wires depends on the intended use, cost, and convenience factors. Understanding the project requirements, considering the associated costs, and evaluating the convenience of each option will help in making an informed decision.
Q: What are the properties of aluminum ingots?
Aluminum ingots possess several distinct properties that make them highly valuable in various industries. First and foremost, aluminum ingots exhibit exceptional lightness, as they have a low density compared to other metals. This property makes them ideal for applications where weight reduction is crucial, such as in the aerospace and automotive sectors. Additionally, aluminum ingots possess excellent corrosion resistance, making them suitable for use in environments where exposure to moisture, chemicals, or harsh weather conditions is probable. This corrosion resistance is due to the formation of a thin, protective oxide layer on the surface of the ingot, which prevents further oxidation and deterioration. Another notable property of aluminum ingots is their high thermal conductivity, allowing them to efficiently transfer heat. This characteristic is particularly advantageous in heat exchange systems, where the ingots can facilitate the transfer of thermal energy. Moreover, aluminum ingots also exhibit excellent electrical conductivity, making them suitable for applications in the electrical and electronics industries. Furthermore, aluminum ingots have a high strength-to-weight ratio, making them strong yet lightweight. This property allows for the construction of structures that require both strength and durability without compromising on weight. Moreover, aluminum ingots are easily recyclable, retaining their properties even after multiple recycling processes, which makes them an environmentally friendly choice. Overall, the properties of aluminum ingots, including their lightness, corrosion resistance, thermal and electrical conductivity, high strength-to-weight ratio, and recyclability, contribute to their widespread use in various industries, ranging from transportation and construction to packaging and consumer goods.
Q: Casting aluminum ingot, environmental protection has those requirements?.
The air cooler and pulse bag filter system are all negative pressure systems, and the draft fan is placed behind the dust removal system. Calcium carbide furnace, furnace, ferrosilicon furnace flue gas first enters the air cooler, the air cooler cooling, cooling to the full temperature range of bag filter can bear, enter into the bag pulse dust collector, after the dust of the flue gas from the chimney fan discharge, discharge from the dust hopper.
Q: Why is there a lot of glue after the aluminium ingot is melted?
Add zinc chloride to the surface of the aluminum and stir it up to separate the aluminum and the ash
Q: What are the limitations of using aluminum ingots in high-temperature applications?
There are several limitations associated with using aluminum ingots in high-temperature applications. Firstly, aluminum has a relatively low melting point of around 660 degrees Celsius. This means that it may not be able to withstand extremely high temperatures typically encountered in some industrial processes or aerospace applications. At such elevated temperatures, aluminum tends to soften and lose its mechanical strength, which can compromise the integrity and functionality of the component or structure. Secondly, aluminum has a high coefficient of thermal expansion. This means that it expands significantly when exposed to heat. This expansion can lead to dimensional instability and can cause issues such as warping or distortion of the component, especially when subjected to rapid or uneven heating and cooling cycles. These dimensional changes can affect the accuracy of the final product and may require additional measures to compensate for the thermal expansion. Additionally, aluminum has relatively poor resistance to oxidation at high temperatures. When exposed to oxygen at elevated temperatures, aluminum can form a thin layer of aluminum oxide, which can act as a barrier and protect the underlying metal from further oxidation. However, at extremely high temperatures, this protective layer can break down, leading to increased susceptibility to oxidation and corrosion. This can result in a reduction in the strength and durability of the aluminum component. Lastly, aluminum has a relatively low strength compared to other materials such as steel or titanium. While aluminum alloys can be developed to enhance their strength, they still may not be suitable for applications requiring exceptional strength at high temperatures. In situations where high mechanical strength is crucial, alternative materials with better high-temperature strength properties may be more suitable. In summary, the limitations of using aluminum ingots in high-temperature applications include its low melting point, high coefficient of thermal expansion, susceptibility to oxidation, and relatively low strength. These factors need to be carefully considered when selecting materials for high-temperature applications to ensure the desired performance and reliability of the components or structures.

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