• Aluminum Alloy Profiles - Slot Aluminium Profiles Extrusions System 1
  • Aluminum Alloy Profiles - Slot Aluminium Profiles Extrusions System 2
Aluminum Alloy Profiles - Slot Aluminium Profiles Extrusions

Aluminum Alloy Profiles - Slot Aluminium Profiles Extrusions

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Aluminium is a relatively soft,durable, lightweight, ductile and malleablemetal with appearance ranging from silvery to dull gray,depending on the surface roughness. It is nonmagnetic and does not easilyignite. A fresh film of aluminium serves as a good reflector (approximately92%) of visible light and an excellent reflector (as much as98%) of medium and far infrared radiation. The yield strength of pure aluminium is 7–11 MPa,while aluminium alloys have yield strengths ranging from200 MPa to 600 MPa. Aluminium has about one-third the density and stiffnessof steel. It iseasily machined,cast, drawn and extruded.


Aluminum Profile


Material

Alloy 6063,6061,6005or according to customer’s choice

Temper

T3, T4, T5, T6

Surface

Anodize, electrophoresis, powder coating, PVDF coating,  wood grain painting, matted, etc.

Length

Coating 6.5 meters, Anodizing 6.5 meters, Mill finish 5  meters

Application

Industrial, electrical equipment(TV set, air conditioner,  refrigerator, computer), decoration,construction, transportation

Custom Made

We can package following with customer's request.






Q: How do you prevent galvanic corrosion when combining aluminum profiles with concrete or masonry?
To minimize the occurrence of galvanic corrosion when combining aluminum profiles with concrete or masonry, several precautions can be taken: 1. Opt for suitable materials: Choose aluminum profiles specifically designed for use in conjunction with concrete or masonry. These profiles often come with coatings or treatments that offer protection against corrosion. 2. Insulate the aluminum profiles: Create an insulating barrier between the aluminum profiles and the concrete or masonry surfaces. This can be achieved by utilizing non-conductive materials like gaskets, rubber pads, or coatings. 3. Avoid direct contact: Whenever feasible, try to reduce direct contact between the aluminum profiles and the concrete or masonry. This can be accomplished by utilizing spacers or other methods of separation to establish a gap between the two materials. 4. Ensure proper installation: Follow the manufacturer's guidelines and recommendations to correctly install the aluminum profiles. This includes using appropriate fasteners and techniques to secure the profiles while preserving the insulation and protective measures. 5. Regular upkeep: Conduct regular inspections of the aluminum profiles and the surrounding concrete or masonry to detect any signs of corrosion or damage. Promptly address any issues to prevent further deterioration. By adhering to these preventive measures, the risk of galvanic corrosion between aluminum profiles and concrete or masonry can be significantly reduced, thereby extending the lifespan and performance of the materials involved.
Q: This question asks about the effects of utilizing aluminum profiles in the construction industry on the environment.
<p>The environmental impacts of using aluminum profiles in construction are multifaceted. On the positive side, aluminum is lightweight and strong, reducing the amount of material needed and potentially decreasing energy consumption in transportation. It is also recyclable, which can reduce waste and the need for raw material extraction. However, the production of aluminum requires significant energy, often from non-renewable sources, contributing to carbon emissions. Additionally, while recycling reduces environmental impact, it still consumes energy and can generate waste. The longevity and durability of aluminum can lead to less frequent replacement, reducing construction waste, but improper disposal can lead to pollution. Overall, the environmental impact depends on the balance between these factors and the specific practices of aluminum production and use in construction.</p>
Q: Is it possible to recycle and reuse aluminum profiles?
<p>Yes, aluminum profiles can be recycled and reused. Recycling aluminum is an efficient and environmentally friendly process, as it requires significantly less energy compared to producing aluminum from raw materials. Recycled aluminum maintains its properties, making it suitable for various applications. The recycling process involves melting the aluminum, which can then be reformed into new profiles without losing its strength or quality. This practice reduces waste and conserves natural resources, contributing to sustainability efforts.</p>
Q: Is it possible to utilize aluminum profiles in regions with low temperatures?
<p>Yes, aluminum profiles can be used in cold climates. Aluminum is a durable material with excellent resistance to corrosion and weathering, including low temperatures. It maintains its strength and does not rust or degrade in cold conditions. However, it's important to consider thermal expansion and contraction, as aluminum expands and contracts more than some other materials. Proper design and installation practices can mitigate these effects, making aluminum profiles suitable for use even in extreme cold environments.</p>
Q: Inquire about the various uses of aluminum profiles within the field of architecture.
<p>Aluminum profiles have a wide range of applications in architecture due to their strength, durability, and lightweight properties. They are commonly used in curtain walls, which are the exterior coverings of buildings, providing both aesthetic appeal and structural integrity. Aluminum profiles are also utilized in window and door frames for their resistance to corrosion and ability to withstand various weather conditions. They are employed in structural glazing to hold glass in place securely. Furthermore, aluminum profiles are used in sun shading systems to control the amount of sunlight entering a building, enhancing energy efficiency. They are also found in handrails, balustrades, and other safety features for their strength and low maintenance requirements. Overall, aluminum profiles contribute to the sustainability and modern design of architectural projects.</p>
Q: Are aluminum profiles suitable for gym equipment?
Indeed, gym equipment can be made using aluminum profiles. Aluminum, being both lightweight and durable, can endure rigorous use and offer exceptional structural support. Its remarkable strength-to-weight ratio renders it perfect for gym equipment, granting effortless maneuverability while retaining stability and durability. Moreover, aluminum is resistant to corrosion, making it apt for environments abundant in moisture or humidity, like gyms or fitness centers. The versatility of aluminum profiles further allows for the customization of gym equipment to suit precise needs and requirements. Overall, aluminum profiles present a plethora of advantages for gym equipment, establishing them as an appropriate selection for fitness facilities.
Q: What are the advantages of using aluminum profiles in the aviation industry?
There are several advantages of using aluminum profiles in the aviation industry. First and foremost, aluminum is a lightweight material. This is crucial in aviation as it helps in reducing the overall weight of the aircraft, which in turn leads to improved fuel efficiency. By using aluminum profiles, aircraft manufacturers can design and construct lighter structures without compromising on strength and durability. Additionally, aluminum exhibits excellent corrosion resistance. This is especially important in the aviation industry where aircraft are exposed to harsh environmental conditions, such as high humidity, temperatures, and saltwater exposure. Aluminum profiles can withstand these conditions, preventing corrosion and ensuring the longevity of the aircraft. Moreover, aluminum profiles offer high strength-to-weight ratio. This means that they provide a strong and rigid structure while remaining lightweight. This property is crucial for ensuring the structural integrity and safety of the aircraft. Aluminum profiles can withstand the stresses and loads experienced during flight, contributing to the overall safety of the aircraft. Furthermore, aluminum is a highly malleable material, making it easy to shape and form into complex designs. This property allows for greater flexibility in aircraft design, enabling manufacturers to create aerodynamic and efficient structures. Aluminum profiles can be easily fabricated, welded, and joined, providing ease of manufacturing and assembly in the aviation industry. Lastly, aluminum is a highly recyclable material. As sustainability becomes increasingly important, using aluminum profiles in aircraft construction helps to reduce carbon footprint. Aluminum can be recycled and reused multiple times without losing its beneficial properties, making it an environmentally friendly choice. Overall, the advantages of using aluminum profiles in the aviation industry include lightweight construction, corrosion resistance, high strength-to-weight ratio, flexibility in design, and recyclability. These properties make aluminum an ideal material for aircraft manufacturing, contributing to improved fuel efficiency, safety, and sustainability.
Q: What are the different types of extrusion processes used for aluminum profiles?
The manufacturing of aluminum profiles utilizes various extrusion processes, each with its own advantages and limitations. These processes are widely employed in the aluminum industry to produce a diverse range of shapes and sizes for different applications. 1. The most commonly used extrusion process for aluminum profiles is direct extrusion. It involves the use of a heated aluminum billet that is forced through a die using either a ram or screw. This results in a continuous profile with a consistent cross-section. 2. Indirect extrusion, also referred to as backward extrusion, is another method. It entails the use of a heated billet that is pushed through a stationary die using a hollow ram. The ram exerts pressure on the back of the billet, causing it to flow through the die and form the desired profile. 3. Hydrostatic extrusion is a specialized process utilized for extruding aluminum profiles with intricate shapes and thin walls. The billet is placed in a sealed container filled with a pressurized fluid, which aids in controlling the material flow and reducing the risk of defects. 4. Impact extrusion is employed to create hollow profiles. It involves striking a slug of aluminum with a punch while it is inside a die. The impact causes the material to flow around the punch and take the shape of the die, resulting in a seamless profile with exceptional dimensional accuracy. 5. Cold extrusion is a room temperature process used to manufacture aluminum profiles. A billet is placed in a die, and pressure is applied to force the material through the die. This yields a profile with enhanced strength and surface finish. 6. Hot extrusion is similar to direct extrusion, but the billet is heated to a higher temperature before being forced through the die. The elevated temperature reduces the material's strength and increases its ductility, enabling the creation of more complex profiles. The selection of an extrusion process depends on various factors, including the desired profile shape, size, complexity, and specific application requirements. Each process offers its own set of benefits and limitations.
Q: This question asks about the various techniques used to install aluminum profiles in construction projects.
<p>There are several methods for installing aluminum profiles in construction: 1. Direct Fixing: Using screws or bolts directly into the aluminum profile. 2. Mortise and Tenon Joints: Joining profiles with a slot and a protruding part that fits into it. 3. Welding: Joining aluminum profiles using heat to melt and fuse them together. 4. Adhesive Bonding: Using adhesives to bond aluminum profiles together. 5. Mechanical Fasteners: Using nuts, bolts, and other fasteners to join profiles. 6. Clipping: Attaching profiles using clips or clamps. 7. Slot and Pin: A system where a pin fits into a slot in the profile. Each method has its advantages and is chosen based on the specific requirements of the construction project, such as load-bearing needs, aesthetic considerations, and ease of installation.</p>
Q: This question asks for a list of various types of fasteners that can be used with aluminum profiles specifically designed for outdoor applications.
<p>Aluminum profiles for outdoor applications commonly use several types of fasteners to ensure secure and durable connections. These include: 1. T-nuts and T-bolts, which provide a strong and hidden connection within the profile. 2. Clamping blocks or plates, which are used for external fastening and can be easily adjusted. 3. Corner brackets, which are used to connect profiles at right angles. 4. Hinges, which allow for pivoting movements in doors or gates. 5. Screws and bolts, which are versatile and can be used in various configurations. 6. Adhesives, which can provide a strong bond in certain applications where mechanical fasteners are not suitable. 7. Rivets, which offer a permanent connection once installed. Each type of fastener is chosen based on the specific requirements of the outdoor structure, such as load-bearing needs, resistance to weather, and aesthetic considerations.</p>

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