CNC Metal part
ARIDA
7318159090
CNC machining center
Stainless Steel
Cold Forging
High Rigidity and Precision
ISO, GS, RoHS, CE
One year
Forging
Standard exporting package
ARIDA
China
CNC precision
New
Motor
Worldwide
yes
CNC
Availability: | |
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Quantity: | |
ps: Above specifications are partial show, if need customized other size, please contact our customer service.
Chemical Composition: AL6063 typically contains magnesium and silicon as major alloying elements, with small amounts of iron, manganese, chromium, and zinc.
Mechanical Properties:
Yield Strength: Typically ranges from 135 MPa to 170 MPa depending on the temper.
Tensile Strength: Ranges from 170 MPa to 220 MPa.
Elongation: Usually between 8% and 12%.
Good Extrusion Properties: AL6063 is known for its excellent extrusion capabilities, making it ideal for creating profiles and tubes.
Machinability: Generally considered good, although it is not the best choice for machining applications due to its tendency to produce long, stringy chips.
Natural Resistance: AL6063 has good corrosion resistance in atmospheric conditions.
Enhanced Resistance: Can be anodized or coated to enhance corrosion resistance, especially for marine or coastal environments.
Tempering: AL6063 can be heat-treated to achieve different tempers such as T5, T6, or T651, which influence the mechanical properties.
Annealing: Annealing can be done to soften the material for better formability.
Polishing: Can be polished to a high shine for decorative purposes.
Painting: Accepts paints well and can be coated to improve appearance and protect against corrosion.
Exterior Trim: Used for decorative trim pieces that require a combination of strength and appearance.
Interior Components: Parts like door handles, window frames, and decorative accents.
Lightweight Structures: Frameworks and support structures that benefit from the alloy's strength-to-weight ratio.
Thickness: Typically ranges from 1 mm to 10 mm for sheets and plates used in automotive parts.
Width and Length: Sheets and plates can come in standard sizes, and extrusions can be customized to specific lengths and cross-sections.
ASTM Standards: Often conforms to ASTM B221, which specifies the chemical composition and mechanical properties of 6063 aluminum.
ISO Standards: May comply with ISO standards for specific applications and performance criteria.
Selection of Alloy: Choose AL6063 alloy for its balance of strength, formability, and corrosion resistance.
Billet Preparation: Start with billets of AL6063 aluminum, which are heated to the correct temperature for extrusion or forging.
Extrusion: For parts that require a hollow or complex cross-section, the AL6063 billet is pushed through a die to form the desired shape.
Casting: For more intricate or specific parts, AL6063 can be cast into molds to form the initial shape.
CNC Machining: Use Computer Numerical Control (CNC) machines to cut, drill, and shape the extruded or cast parts into the final form.
Precision Cutting: High-precision cutting tools ensure the parts meet the exact dimensions specified in the design drawings.
Solution Heat Treatment: The parts may be subjected to a solution heat treatment to dissolve alloying elements into the solid solution.
Quenching: Rapid cooling follows the heat treatment to retain the dissolved elements.
Artificial Aging: Post-cooling, the parts are aged to increase strength and hardness.
Polishing: The parts are polished to remove any imperfections and to prepare them for painting or other surface treatments.
Painting/Coating: The parts are painted or coated to achieve the desired color and finish, enhancing both appearance and corrosion resistance.
Component Assembly: Individual parts are assembled together using adhesives, screws, or welding techniques depending on the design requirements.
Sub-Assemblies: Larger components are built up from smaller sub-assemblies.
Inspection: Each part and the assembled model undergo rigorous inspections to ensure compliance with quality standards.
Testing: The parts are tested for fit, function, and durability to simulate real-world conditions.
Packaging: The finished parts are packaged carefully to prevent damage during shipping.
Shipping: Parts are shipped to the assembly facility or distribution centers.
Strength vs. Formability: While AL6063 is known for its good formability and extrusion properties, it has lower strength compared to some other aluminum alloys. This can be a challenge when the part requires higher load-bearing capacity.
Corrosion Resistance: Although AL6063 has good natural corrosion resistance, it may still require additional treatments like anodizing or coating for prolonged exposure to harsh environments.
Extrusion Limitations: The extrusion process can introduce internal stresses that need to be relieved through thermal treatments. If not properly managed, these stresses can lead to bending or warping of the parts.
Machining Challenges: AL6063 can produce long, stringy chips during machining, which can be difficult to manage and may require specialized tooling or processes to handle efficiently.
Controlled Heating and Cooling: To achieve the desired mechanical properties, strict control over heating and cooling cycles is necessary. Improper heat treatment can result in suboptimal strength or ductility.
Uniformity: Ensuring uniform heat treatment across the entire part can be challenging, especially for large or complex geometries.
Consistency: Achieving a uniform surface finish, particularly after anodizing or coating, can be difficult. Variations in the surface can affect the final appearance and durability of the part.
Environmental Concerns: Some surface treatments involve chemicals that require careful handling and disposal to comply with environmental regulations.
Compatibility: Ensuring that AL6063 parts integrate seamlessly with other materials used in the model car, such as plastics or other metals, can be a challenge. Differences in thermal expansion coefficients can lead to issues during assembly.
Fastening Solutions: Choosing the right fasteners and methods to join AL6063 parts to other components requires careful consideration to avoid galvanic corrosion or stress concentrations.
Material Costs: Although AL6063 is relatively cost-effective, the costs of specialized tooling, heat treatment, and surface finishing can add up.
Production Efficiency: Balancing the need for high-quality parts with efficient production processes can be tricky. For example, slower machining speeds due to chip management can reduce throughput.
Safety Standards: Ensuring that the parts meet safety and performance standards set by regulatory bodies can require extensive testing and documentation.
Environmental Regulations: Compliance with environmental regulations regarding the disposal of machining fluids and waste materials is essential.
Complex Geometries: The design of the parts can affect manufacturability. Parts with intricate designs may be more challenging to produce and may require advanced manufacturing techniques.
Weight Management: While AL6063 is lightweight, balancing weight reduction with strength and durability is crucial, especially in applications where performance is critical.
ps: Above specifications are partial show, if need customized other size, please contact our customer service.
Chemical Composition: AL6063 typically contains magnesium and silicon as major alloying elements, with small amounts of iron, manganese, chromium, and zinc.
Mechanical Properties:
Yield Strength: Typically ranges from 135 MPa to 170 MPa depending on the temper.
Tensile Strength: Ranges from 170 MPa to 220 MPa.
Elongation: Usually between 8% and 12%.
Good Extrusion Properties: AL6063 is known for its excellent extrusion capabilities, making it ideal for creating profiles and tubes.
Machinability: Generally considered good, although it is not the best choice for machining applications due to its tendency to produce long, stringy chips.
Natural Resistance: AL6063 has good corrosion resistance in atmospheric conditions.
Enhanced Resistance: Can be anodized or coated to enhance corrosion resistance, especially for marine or coastal environments.
Tempering: AL6063 can be heat-treated to achieve different tempers such as T5, T6, or T651, which influence the mechanical properties.
Annealing: Annealing can be done to soften the material for better formability.
Polishing: Can be polished to a high shine for decorative purposes.
Painting: Accepts paints well and can be coated to improve appearance and protect against corrosion.
Exterior Trim: Used for decorative trim pieces that require a combination of strength and appearance.
Interior Components: Parts like door handles, window frames, and decorative accents.
Lightweight Structures: Frameworks and support structures that benefit from the alloy's strength-to-weight ratio.
Thickness: Typically ranges from 1 mm to 10 mm for sheets and plates used in automotive parts.
Width and Length: Sheets and plates can come in standard sizes, and extrusions can be customized to specific lengths and cross-sections.
ASTM Standards: Often conforms to ASTM B221, which specifies the chemical composition and mechanical properties of 6063 aluminum.
ISO Standards: May comply with ISO standards for specific applications and performance criteria.
Selection of Alloy: Choose AL6063 alloy for its balance of strength, formability, and corrosion resistance.
Billet Preparation: Start with billets of AL6063 aluminum, which are heated to the correct temperature for extrusion or forging.
Extrusion: For parts that require a hollow or complex cross-section, the AL6063 billet is pushed through a die to form the desired shape.
Casting: For more intricate or specific parts, AL6063 can be cast into molds to form the initial shape.
CNC Machining: Use Computer Numerical Control (CNC) machines to cut, drill, and shape the extruded or cast parts into the final form.
Precision Cutting: High-precision cutting tools ensure the parts meet the exact dimensions specified in the design drawings.
Solution Heat Treatment: The parts may be subjected to a solution heat treatment to dissolve alloying elements into the solid solution.
Quenching: Rapid cooling follows the heat treatment to retain the dissolved elements.
Artificial Aging: Post-cooling, the parts are aged to increase strength and hardness.
Polishing: The parts are polished to remove any imperfections and to prepare them for painting or other surface treatments.
Painting/Coating: The parts are painted or coated to achieve the desired color and finish, enhancing both appearance and corrosion resistance.
Component Assembly: Individual parts are assembled together using adhesives, screws, or welding techniques depending on the design requirements.
Sub-Assemblies: Larger components are built up from smaller sub-assemblies.
Inspection: Each part and the assembled model undergo rigorous inspections to ensure compliance with quality standards.
Testing: The parts are tested for fit, function, and durability to simulate real-world conditions.
Packaging: The finished parts are packaged carefully to prevent damage during shipping.
Shipping: Parts are shipped to the assembly facility or distribution centers.
Strength vs. Formability: While AL6063 is known for its good formability and extrusion properties, it has lower strength compared to some other aluminum alloys. This can be a challenge when the part requires higher load-bearing capacity.
Corrosion Resistance: Although AL6063 has good natural corrosion resistance, it may still require additional treatments like anodizing or coating for prolonged exposure to harsh environments.
Extrusion Limitations: The extrusion process can introduce internal stresses that need to be relieved through thermal treatments. If not properly managed, these stresses can lead to bending or warping of the parts.
Machining Challenges: AL6063 can produce long, stringy chips during machining, which can be difficult to manage and may require specialized tooling or processes to handle efficiently.
Controlled Heating and Cooling: To achieve the desired mechanical properties, strict control over heating and cooling cycles is necessary. Improper heat treatment can result in suboptimal strength or ductility.
Uniformity: Ensuring uniform heat treatment across the entire part can be challenging, especially for large or complex geometries.
Consistency: Achieving a uniform surface finish, particularly after anodizing or coating, can be difficult. Variations in the surface can affect the final appearance and durability of the part.
Environmental Concerns: Some surface treatments involve chemicals that require careful handling and disposal to comply with environmental regulations.
Compatibility: Ensuring that AL6063 parts integrate seamlessly with other materials used in the model car, such as plastics or other metals, can be a challenge. Differences in thermal expansion coefficients can lead to issues during assembly.
Fastening Solutions: Choosing the right fasteners and methods to join AL6063 parts to other components requires careful consideration to avoid galvanic corrosion or stress concentrations.
Material Costs: Although AL6063 is relatively cost-effective, the costs of specialized tooling, heat treatment, and surface finishing can add up.
Production Efficiency: Balancing the need for high-quality parts with efficient production processes can be tricky. For example, slower machining speeds due to chip management can reduce throughput.
Safety Standards: Ensuring that the parts meet safety and performance standards set by regulatory bodies can require extensive testing and documentation.
Environmental Regulations: Compliance with environmental regulations regarding the disposal of machining fluids and waste materials is essential.
Complex Geometries: The design of the parts can affect manufacturability. Parts with intricate designs may be more challenging to produce and may require advanced manufacturing techniques.
Weight Management: While AL6063 is lightweight, balancing weight reduction with strength and durability is crucial, especially in applications where performance is critical.
What are high precision turning metal parts?
Answer: High precision turning metal parts are components manufactured using a turning process that achieves exceptional accuracy and repeatability. The parts are typically made using advanced CNC (Computer Numerical Control) lathes and can be made from a variety of metals.
What is the turning process for high precision metal parts?
Answer: The turning process involves rotating the workpiece in a lathe while a cutting tool removes material to create the desired shape. CNC lathes are used to precisely guide the cutting tools, ensuring the parts meet tight tolerances.
What materials are commonly used for high precision turning metal parts?
Steel: Stainless steel, carbon steel, and alloy steels.
Aluminum: Various grades of aluminum alloys.
Copper and Brass: For electrical and thermal conductivity.
Titanium: For aerospace and medical applications.
Exotic Alloys: Such as inconel, hastelloy, and titanium alloys for high-temperature and corrosive environments.
Answer: Common materials include:
What are the typical tolerances for high precision turning metal parts?
Answer: Tolerances can vary depending on the specific application and material, but high precision turning metal parts typically achieve tolerances within ±0.001 inches (±0.025 mm) or better.
What are the advantages of using high precision turning metal parts?
Precision: High accuracy and repeatability.
Quality: Consistent quality and reliability.
Efficiency: Economical for both small batch and high-volume production.
Flexibility: Ability to manufacture a wide range of parts from different materials and sizes.
Cost-Effectiveness: Economical due to the automation and efficiency of CNC lathes.
Answer: Advantages include:
What are the challenges in high precision turning?
Material Hardness: Harder materials can be challenging to machine and may require specialized cutting tools.
Tool Wear: High-speed machining can cause increased tool wear, requiring frequent replacement.
Coolant Management: Effective coolant management is essential to maintain tool life and part quality.
Vibration Control: Vibration can affect the accuracy of the parts, requiring careful setup and monitoring.
Answer: Challenges include:
What types of post-processing can be done on high precision turning metal parts?
Finishing: Polishing, grinding, or surface treatments to achieve the desired finish.
Heat Treatment: To alter the mechanical properties of the material.
Coating: To improve corrosion resistance or other surface properties.
Assembly: Integrating the parts into complete components or systems.
Answer: Post-processing can include:
What are some common applications of high precision turning metal parts?
Aerospace: Engine components, landing gear parts, and structural components.
Automotive: Engine components, transmission parts, and suspension systems.
Medical: Surgical instruments, implants, and medical device components.
Electronics: Connectors, pins, and other precision components.
Military: Precision parts for weapons systems, communication equipment, and navigation systems.
Instrumentation: Components for scientific instruments and measurement devices.
Answer: Common applications include:
How are high precision turning metal parts inspected to ensure quality?
Non-Destructive Testing (NDT): Ultrasonic testing, eddy current testing, and radiographic testing.
Dimensional Inspection: Using calipers, micrometers, and coordinate measuring machines (CMMs).
Visual Inspection: Checking for surface defects and overall appearance.
Answer: Inspection methods include:
Can high precision turning metal parts be customized?
Answer: Yes, high precision turning metal parts can be customized to meet specific requirements. This includes tailoring the design, materials, and finishing processes to fit the application.
What is the difference between high precision turning and conventional turning?
Answer: High precision turning uses advanced CNC lathes and tighter tolerances to produce parts with exceptional accuracy. Conventional turning typically refers to manual lathe operations with less precise tolerances.
What is multi-axis machining in high precision turning?
Answer: Multi-axis machining allows the cutting tool to move in multiple directions simultaneously, enabling the creation of complex features and geometries that would be difficult or impossible with single-axis machining.
How do CNC lathes contribute to the high precision of turning metal parts?
Answer: CNC lathes use computer-controlled systems to precisely guide the cutting tools, ensuring the parts meet tight tolerances. They can operate 24/7, increasing productivity and reducing lead times.
What is the role of the operator in high precision turning?
Answer: The operator programs the CNC lathe, sets up the machine, and monitors the process to ensure the parts meet the specified tolerances. They also perform quality checks and make adjustments as needed.
Can high precision turning metal parts be used in extreme environments?
Answer: Yes, high precision turning metal parts can be made from materials suitable for extreme environments, such as high-temperature and corrosive conditions. The choice of material and coatings can be tailored to withstand these conditions.
What are high precision turning metal parts?
Answer: High precision turning metal parts are components manufactured using a turning process that achieves exceptional accuracy and repeatability. The parts are typically made using advanced CNC (Computer Numerical Control) lathes and can be made from a variety of metals.
What is the turning process for high precision metal parts?
Answer: The turning process involves rotating the workpiece in a lathe while a cutting tool removes material to create the desired shape. CNC lathes are used to precisely guide the cutting tools, ensuring the parts meet tight tolerances.
What materials are commonly used for high precision turning metal parts?
Steel: Stainless steel, carbon steel, and alloy steels.
Aluminum: Various grades of aluminum alloys.
Copper and Brass: For electrical and thermal conductivity.
Titanium: For aerospace and medical applications.
Exotic Alloys: Such as inconel, hastelloy, and titanium alloys for high-temperature and corrosive environments.
Answer: Common materials include:
What are the typical tolerances for high precision turning metal parts?
Answer: Tolerances can vary depending on the specific application and material, but high precision turning metal parts typically achieve tolerances within ±0.001 inches (±0.025 mm) or better.
What are the advantages of using high precision turning metal parts?
Precision: High accuracy and repeatability.
Quality: Consistent quality and reliability.
Efficiency: Economical for both small batch and high-volume production.
Flexibility: Ability to manufacture a wide range of parts from different materials and sizes.
Cost-Effectiveness: Economical due to the automation and efficiency of CNC lathes.
Answer: Advantages include:
What are the challenges in high precision turning?
Material Hardness: Harder materials can be challenging to machine and may require specialized cutting tools.
Tool Wear: High-speed machining can cause increased tool wear, requiring frequent replacement.
Coolant Management: Effective coolant management is essential to maintain tool life and part quality.
Vibration Control: Vibration can affect the accuracy of the parts, requiring careful setup and monitoring.
Answer: Challenges include:
What types of post-processing can be done on high precision turning metal parts?
Finishing: Polishing, grinding, or surface treatments to achieve the desired finish.
Heat Treatment: To alter the mechanical properties of the material.
Coating: To improve corrosion resistance or other surface properties.
Assembly: Integrating the parts into complete components or systems.
Answer: Post-processing can include:
What are some common applications of high precision turning metal parts?
Aerospace: Engine components, landing gear parts, and structural components.
Automotive: Engine components, transmission parts, and suspension systems.
Medical: Surgical instruments, implants, and medical device components.
Electronics: Connectors, pins, and other precision components.
Military: Precision parts for weapons systems, communication equipment, and navigation systems.
Instrumentation: Components for scientific instruments and measurement devices.
Answer: Common applications include:
How are high precision turning metal parts inspected to ensure quality?
Non-Destructive Testing (NDT): Ultrasonic testing, eddy current testing, and radiographic testing.
Dimensional Inspection: Using calipers, micrometers, and coordinate measuring machines (CMMs).
Visual Inspection: Checking for surface defects and overall appearance.
Answer: Inspection methods include:
Can high precision turning metal parts be customized?
Answer: Yes, high precision turning metal parts can be customized to meet specific requirements. This includes tailoring the design, materials, and finishing processes to fit the application.
What is the difference between high precision turning and conventional turning?
Answer: High precision turning uses advanced CNC lathes and tighter tolerances to produce parts with exceptional accuracy. Conventional turning typically refers to manual lathe operations with less precise tolerances.
What is multi-axis machining in high precision turning?
Answer: Multi-axis machining allows the cutting tool to move in multiple directions simultaneously, enabling the creation of complex features and geometries that would be difficult or impossible with single-axis machining.
How do CNC lathes contribute to the high precision of turning metal parts?
Answer: CNC lathes use computer-controlled systems to precisely guide the cutting tools, ensuring the parts meet tight tolerances. They can operate 24/7, increasing productivity and reducing lead times.
What is the role of the operator in high precision turning?
Answer: The operator programs the CNC lathe, sets up the machine, and monitors the process to ensure the parts meet the specified tolerances. They also perform quality checks and make adjustments as needed.
Can high precision turning metal parts be used in extreme environments?
Answer: Yes, high precision turning metal parts can be made from materials suitable for extreme environments, such as high-temperature and corrosive conditions. The choice of material and coatings can be tailored to withstand these conditions.
Reviewer: Caroline Chaning
Date: August 26, 2023
Rating: 5 out of 5 stars
Title: Exceptional Quality and Reliability
I recently ordered a set of high precision turning metal parts for our aerospace project from ABC Manufacturing, and I must say, I am thoroughly impressed with the quality and reliability of the components. Here's my experience:
Pros:
Precision: The parts are incredibly precise, meeting the tight tolerances we specified. The CNC machining is top-notch, and the parts fit perfectly into our assembly.
Material Quality: We ordered stainless steel parts, and the material is excellent. It's strong, corrosion-resistant, and the surface finish is smooth.
Communication: The team at ABC Manufacturing was responsive and professional throughout the entire process. They answered all of our technical questions and provided timely updates.
Customization: We needed some custom modifications, and they were able to accommodate our requests without any issues. The modifications were executed flawlessly.
Packaging and Delivery: The parts arrived on time and were packaged securely to prevent any damage during shipping.
Cons:
Price: The cost is higher than what we've paid for similar parts in the past, but given the precision and quality, it's worth the investment.
Overall:ABC Manufacturing has exceeded our expectations with their high precision turning metal parts. The parts are critical components for our aerospace project, and their reliability is crucial. The team's attention to detail and commitment to quality is evident in every aspect of the manufacturing process. I would highly recommend ABC Manufacturing for anyone in need of high-quality, precision-machined metal parts.
Reviewer: Caroline Chaning
Date: August 26, 2023
Rating: 5 out of 5 stars
Title: Exceptional Quality and Reliability
I recently ordered a set of high precision turning metal parts for our aerospace project from ABC Manufacturing, and I must say, I am thoroughly impressed with the quality and reliability of the components. Here's my experience:
Pros:
Precision: The parts are incredibly precise, meeting the tight tolerances we specified. The CNC machining is top-notch, and the parts fit perfectly into our assembly.
Material Quality: We ordered stainless steel parts, and the material is excellent. It's strong, corrosion-resistant, and the surface finish is smooth.
Communication: The team at ABC Manufacturing was responsive and professional throughout the entire process. They answered all of our technical questions and provided timely updates.
Customization: We needed some custom modifications, and they were able to accommodate our requests without any issues. The modifications were executed flawlessly.
Packaging and Delivery: The parts arrived on time and were packaged securely to prevent any damage during shipping.
Cons:
Price: The cost is higher than what we've paid for similar parts in the past, but given the precision and quality, it's worth the investment.
Overall:ABC Manufacturing has exceeded our expectations with their high precision turning metal parts. The parts are critical components for our aerospace project, and their reliability is crucial. The team's attention to detail and commitment to quality is evident in every aspect of the manufacturing process. I would highly recommend ABC Manufacturing for anyone in need of high-quality, precision-machined metal parts.