Aluminum Ingots AA1060

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20 Tons m.t.
Supply Capability:
1000 Sets Per Month m.t./month
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 1. Specifications of Aluminum Ingots AA1060

Product NameAluminum Ingot
Chemical CompositionAl
Al (Min)99%-99.9%
Appearancesilvery white
Advantageseasy control and operation, fast melting

Aluminum Ingot AA1060-1

2. Usage/Application of Aluminum Ingots AA1060
A. mainly used for melting ingot
B. discontinuous melting with scrap
3.Packaging & Delivery of Aluminum Ingots AA1060
About 25Kg /Ingot, Packed in wooden case, Net weight 1000Kg/ Case, or as customer's requirements.
Aluminum Ingot AA1060-2

There are several methods available to protect aluminum ingots from corrosion. One of these is applying a protective coating or film to the surface of the ingots. This coating acts as a barrier, preventing direct contact between the aluminum and the environment and reducing the risk of corrosion. Coatings can include paint, lacquer, or specialized epoxy coatings. Another method is anodization, which involves an electrochemical process that creates a thick oxide layer on the ingots' surface. This oxide layer not only improves the appearance of the ingots but also provides a strong defense against corrosion. Anodization can be done using different techniques, such as sulfuric acid anodizing or chromic acid anodizing, depending on the desired level of protection. In addition, proper storage and handling practices are crucial in protecting aluminum ingots from corrosion. It is important to store the ingots in a dry and well-ventilated area to minimize moisture exposure. They should also be stacked and stored in a way that allows air circulation to prevent the formation of stagnant water or condensation. Regular inspections and maintenance are necessary to detect any signs of corrosion early on and take appropriate action to address it. To sum up, protecting aluminum ingots from corrosion requires a combination of protective coatings, anodization, and proper storage and handling practices. By implementing these measures, the durability and quality of aluminum ingots can be preserved, ensuring their suitability for various applications.
The production of electrical conductors heavily relies on aluminum ingots, which undergo a crucial transformation process. Initially, these ingots are melted and cast into different shapes, including wires, rods, or strips, depending on their intended use. The outstanding electrical conductivity of aluminum is one of the main factors contributing to its widespread use in electrical conductors. With approximately 61% of the electrical conductivity of copper, aluminum serves as a viable alternative in electrical applications. Moreover, its lightweight nature compared to copper offers advantages in terms of transportation and installation costs. To manufacture electrical conductors, the typical procedure involves various steps for processing aluminum ingots. Initially, the ingots are heated and extruded to form elongated aluminum rods or wires. These rods or wires are then drawn through a series of dies to decrease their diameter and increase their length. This wire drawing process refines the microstructure of aluminum, ultimately enhancing its electrical conductivity. Subsequently, the aluminum rods or wires undergo annealing to relieve any stress and enhance their mechanical properties. Following this, a thin layer of insulation, such as a polymer or enamel coating, may be applied to the aluminum conductors. This protective coating safeguards against electrical short circuits and corrosion. Once the aluminum conductors are prepared, they find application in a wide range of electrical uses. Commonly utilized in power transmission and distribution systems, aluminum conductors are frequently employed in overhead lines. Additionally, they are utilized in electrical cables, including building wiring and automotive wiring harnesses. To summarize, aluminum ingots are a vital component in the production of electrical conductors. Through processes like extrusion, wire drawing, and insulation application, aluminum ingots undergo a transformation into dependable and highly conductive components utilized in diverse electrical applications.
Impurities are removed from aluminum ingots through a process called refining or purification. There are several methods used to achieve this, including: 1. Fluxing: Fluxes, such as chlorine or sodium chloride, are added to the molten aluminum to react with the impurities. This process forms compounds that are more easily removed as slag or dross. 2. Electrolytic refining: In this method, the impure aluminum ingots are immersed in an electrolyte solution and subjected to an electric current. The impurities are attracted to the anode, where they accumulate as a residue, while the purified aluminum collects at the cathode. 3. Centrifugal separation: This technique involves spinning the molten aluminum in a centrifuge, which causes the denser impurities to migrate towards the outer edge. The purified aluminum is then collected from the center. 4. Filtration: Filtration can be used to remove solid impurities from the molten aluminum. Filters made of materials like ceramic or graphite are employed, which trap the impurities while allowing the purified aluminum to pass through. 5. Vacuum treatment: In this method, the molten aluminum is subjected to a vacuum environment, which helps to remove volatile impurities like hydrogen and some low-boiling-point metals. The reduced pressure facilitates the removal of these impurities by vaporization. It is important to note that the specific method chosen for impurity removal depends on factors such as the type and concentration of impurities, the desired level of purity, and the cost-effectiveness of the chosen process. Different industries and applications may require different levels of purity, and thus, the refining process may vary accordingly.
Due to their unique properties, aluminum ingots find extensive use in the marine industry for various applications. Building boats and ships is one common use of aluminum ingots in this industry, primarily because of their lightweight nature, which improves fuel efficiency and increases speed. Furthermore, aluminum's high resistance to corrosion makes it an excellent choice for marine environments where exposure to saltwater and harsh weather conditions is commonplace. Moreover, aluminum ingots are employed in the manufacturing of marine structures like docks, piers, and offshore platforms. Their durability and strength ensure that these structures can withstand the harsh marine environment, enduring constant exposure to water, waves, and corrosive elements. Additionally, aluminum ingots are utilized in the production of marine equipment and components, such as propellers, hulls, masts, and various fittings. The high strength-to-weight ratio of aluminum enables the production of lighter and more efficient equipment without compromising on durability or performance. Beyond its practical applications, aluminum is also favored in the marine industry for its aesthetic appeal. The ease with which aluminum can be shaped and formed allows for the creation of sleek and modern designs that enhance the overall appearance of boats and marine structures. Overall, aluminum ingots play a crucial role in the marine industry by providing lightweight, corrosion-resistant, and durable materials for the construction of boats, ships, marine structures, and equipment. The utilization of aluminum in the marine industry contributes to improved performance, efficiency, and longevity in the face of the challenging marine environment.
Aluminum ingots can be enhanced with various alloying elements to improve their properties and characteristics. Some commonly utilized alloying elements are: 1. Copper (Cu): To increase the strength and hardness of the alloy, copper is frequently added to aluminum ingots. Copper-aluminum alloys, also known as aluminum bronzes, exhibit outstanding corrosion resistance and find extensive usage in marine applications. 2. Zinc (Zn): Aluminum ingots often incorporate zinc as an alloying element to enhance the metal's castability. Aluminum-zinc alloys, like the 7000 series, possess high strength, good corrosion resistance, and are prevalent in aerospace and automotive applications. 3. Magnesium (Mg): Magnesium is a widely employed alloying element in aluminum ingots, especially in the 5000 series alloys. It improves aluminum's strength, machinability, and provides excellent corrosion resistance. Aluminum-magnesium alloys are commonly utilized in structural applications. 4. Silicon (Si): The addition of silicon to aluminum ingots improves their casting characteristics and reduces solidification shrinkage. Aluminum-silicon alloys, such as the 4000 series, exhibit good fluidity and are often employed in automotive and electronic components. 5. Manganese (Mn): Aluminum ingots can incorporate manganese as an alloying element to increase strength and improve corrosion resistance. Aluminum-manganese alloys, like the 3000 series, possess good formability and are commonly used in the construction and packaging industries. 6. Chromium (Cr): Aluminum ingots can be enriched with chromium to enhance their heat resistance and mechanical properties. Aluminum-chromium alloys, such as the 2000 series, are frequently employed in aerospace and high-temperature applications. 7. Lithium (Li): In small quantities, lithium, a lightweight and highly reactive element, is utilized to create aluminum-lithium alloys with high strength and low density. These alloys are primarily utilized in aerospace applications where weight reduction is crucial. These represent only a fraction of the alloying elements employed in aluminum ingots. The selection of alloying elements depends on the desired properties of the final product and its intended application.
Q:Pop can recovery aluminium ingot
This equipment is like a house to buy equipment and then to their masonry, generally dug a hole 2 meters deep, the pot material has 2 kinds, one kind is graphite, a cast iron, graphite is relatively better, Zhejiang has Yongkang sell, including tools, and this process is originated in the then, if you want to do better to the study, to be able to please the master.
Using aluminum ingots in aerospace applications has several advantages: 1. Lightweight: Aluminum is a lightweight material, which is crucial in aerospace applications where reducing weight is important. This allows for better fuel efficiency and increased payload capacity, resulting in improved aircraft performance. 2. Strength: Despite being lightweight, aluminum ingots have an excellent strength-to-weight ratio. They can withstand high stresses and loads, providing structural integrity and durability to aerospace components. This strength is essential for ensuring the safety and reliability of aircraft structures. 3. Corrosion resistance: Aluminum ingots have inherent corrosion resistance because they form a protective oxide layer. This is particularly significant in aerospace applications as aircraft often face harsh environmental conditions such as humidity, saltwater, and extreme temperatures. Aluminum's corrosion resistance helps prolong the lifespan of aerospace components and reduces maintenance needs. 4. Formability: Aluminum ingots are highly malleable, making it easy to shape and form them into complex structures. This flexibility in manufacturing processes allows designers to create intricate and aerodynamic components, leading to improved efficiency and performance of the aircraft. 5. Thermal conductivity: Aluminum has excellent thermal conductivity, meaning it can effectively transfer and dissipate heat. In aerospace applications, this is particularly valuable as it helps manage and regulate the temperature within the aircraft. It prevents critical components from overheating and ensures optimal performance. 6. Recyclability: Aluminum is highly recyclable, and ingots made from recycled aluminum can be used in aerospace applications. This not only reduces the environmental impact of manufacturing but also provides cost savings. Recycled aluminum ingots offer similar performance characteristics as virgin aluminum, making them a sustainable and economically viable choice for the aerospace industry. Overall, the advantages of using aluminum ingots in aerospace applications make it the preferred material for various components, including fuselages, wings, and structural elements. Its lightweight, strength, corrosion resistance, formability, thermal conductivity, and recyclability properties contribute to improved aircraft performance, safety, and sustainability.
There are several environmental benefits associated with using aluminum ingots. Firstly, aluminum is a highly recyclable material. In fact, it is one of the most recycled materials in the world. By using aluminum ingots, we can promote a circular economy where the material can be reused and repurposed without significant degradation in quality. This reduces the need for extracting and processing new aluminum from bauxite ore, which requires significant energy and contributes to carbon emissions. Recycling aluminum ingots greatly reduces the energy and carbon footprint associated with its production. Furthermore, aluminum ingots have a relatively low weight compared to other materials, such as steel. This lightweight characteristic is advantageous in various industries, particularly automotive and aerospace. By using aluminum ingots instead of heavier materials, vehicles and aircraft can achieve better fuel efficiency, leading to reduced greenhouse gas emissions. Additionally, the lightweight nature of aluminum ingots allows for easier transportation and reduces fuel consumption during the logistics process. Another environmental benefit of using aluminum ingots is their resistance to corrosion. Aluminum naturally forms a protective oxide layer that helps prevent rust and degradation, making it highly durable and long-lasting. This means that products made from aluminum ingots, such as building materials or consumer goods, have a longer lifespan and require less frequent replacement. This reduces the overall demand for raw materials and minimizes waste generation. Lastly, aluminum ingots can contribute to energy savings in buildings. Aluminum is an excellent conductor of heat and electricity, allowing for efficient thermal management in construction. By using aluminum ingots in windows, doors, and other building components, energy consumption for heating and cooling can be reduced, leading to lower carbon emissions and decreased reliance on fossil fuels. In conclusion, the environmental benefits of using aluminum ingots include its recyclability, lightweight nature, corrosion resistance, and energy efficiency. By incorporating aluminum ingots into various industries and products, we can promote sustainability, reduce carbon emissions, and conserve natural resources.
The environmental impacts associated with the production of aluminum ingots are diverse. One major concern revolves around the extraction of bauxite, the primary ore used in aluminum production. The mining process, which often involves deforestation and habitat destruction, leads to the loss of biodiversity and disrupts ecosystems. Refining bauxite into alumina, a precursor to aluminum, demands significant amounts of energy. Typically, this energy is sourced from non-renewable fuels like coal or natural gas, resulting in greenhouse gas emissions and contributing to climate change. Subsequently, electrolysis is employed to convert alumina into aluminum metal, necessitating substantial electricity consumption. If this electricity is generated from fossil fuel-based power plants, it further exacerbates greenhouse gas emissions. Nevertheless, some aluminum smelters are transitioning to renewable energy sources, which aids in reducing their carbon footprint. The production of aluminum ingots also generates waste and by-products. The residue left after extracting alumina, known as red mud, possesses high alkalinity. If not properly managed, this residue can pose risks to soil and water quality and harm aquatic life if it enters nearby water bodies. Moreover, the transportation of bauxite, alumina, and aluminum ingots over long distances contributes to carbon emissions and air pollution. The extraction and production processes may also require the utilization of chemicals and other resources, which, if not properly managed, can have negative impacts on local ecosystems and water sources. In conclusion, the production of aluminum ingots entails various environmental impacts, including deforestation, greenhouse gas emissions, waste generation, and potential water and soil pollution. However, the industry is actively striving to address these concerns through the adoption of renewable energy, improved waste management practices, and resource efficiency measures.
Q:Sincerely ask predecessors to tell me about the processing of aluminum ingots to doors and windows, curtain walls, aluminum profiles, the general process and about the process!
Then, the aluminum bar is used as the material extruding machine, and then the die is extruded into the shaped section which needs to be shaped. After the cut of the section bar is cut off, the heat treatment is carried out to increase the strength. And then shot peening, oxidation, color, and become our doors and windows, curtain wall materials.
We are a well-known enterprise specializing in the production and sales of aluminum sheets and coils. Since the establishment of us, we have been devoted to setting up a good CIS and completely implementing ISO9001 quality management system.

1. Manufacturer Overview

Location Henan,China
Year Established 1993
Annual Output Value Above US$200 Million
Main Markets Mid East;Eastern Europe;North America
Company Certifications ISO 9001:2000;ISO 14001:2004;OHSAS 18001

2. Manufacturer Certificates

a) Certification Name  
Validity Period  

3. Manufacturer Capability

a)Trade Capacity  
Nearest Port Shanghai
Export Percentage 30%-50%
No.of Employees in Trade Department 21-50 People
Language Spoken: English;Chinese
b)Factory Information  
Factory Size: Above 100,000 square meters
No. of Production Lines Above 10
Contract Manufacturing OEM Service Offered;Design Service Offered
Product Price Range Average

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