

Produced using a combination of dual-vacuum metallurgy and precision forging processes, the 6061 aluminum alloy product is classified as a lightweight, high-strength structural forging. Through a comprehensive process involving purification via melting, densification via forging, and precise heat treatment to optimize its metallographic structure, the product achieves a balanced combination of lightweight properties, high strength, fatigue resistance, impact resistance, and dimensional stability. Designed to serve as a superior alternative to traditional steel and standard extruded aluminum, it primarily targets critical load-bearing, transmission, sealing, and connection components within high-end equipment systems. Consequently, it stands as the preferred structural component for the machinery, energy, rail transit, and hydraulic fluid equipment sectors, enabling significant weight reduction, enhanced efficiency, and improved overall system reliability.
Produced using a combination of dual-vacuum metallurgy and precision forging processes, the 6061 aluminum alloy product is classified as a lightweight, high-strength structural forging. Through a comprehensive process involving purification via melting, densification via forging, and precise heat treatment to optimize its metallographic structure, the product achieves a balanced combination of lightweight properties, high strength, fatigue resistance, impact resistance, and dimensional stability. Designed to serve as a superior alternative to traditional steel and standard extruded aluminum, it primarily targets critical load-bearing, transmission, sealing, and connection components within high-end equipment systems. Consequently, it stands as the preferred structural component for the machinery, energy, rail transit, and hydraulic fluid equipment sectors, enabling significant weight reduction, enhanced efficiency, and improved overall system reliability.
6061 aluminum alloy forgings are suitable for the following industrial sectors:
|
Industry |
Part |
Function |
| Non-critical structural components, aircraft interior parts, hydraulic housings | It offers high reliability and excellent fatigue resistance. Due to its good weldability and corrosion resistance, 6061 is frequently used for auxiliary airframe structures and helicopter rotor system components. | |
| Marine Hardware, Outboard Motor Brackets, Pump and Valve Housings, Seawater Piping Flanges | It possesses exceptional resistance to seawater corrosion, allowing for long-term use with virtually no need for protective coatings, and is lightweight for easy installation. | |
| Pipe supports, wellhead control panel components, non-magnetic structural components for drilling platforms, safety valve bodies. | Provides spark-free properties (essential for preventing the ignition of flammable gases) and good weather resistance in non-strongly acidic environments. | |
|
Renewable Energy |
Gearbox housings, generator mounts, and yaw gear ring seats in wind turbines; slewing bearings and connecting arms in solar tracking systems; and pipe fittings and valve bodies in hydrogen energy systems. | It meets outdoor requirements for weather resistance, UV resistance, and salt spray resistance, while simultaneously reducing the weight at the top of the tower and lowering structural costs. |
|
Automotive Industry |
Suspension System: Control Arms, Steering Knuckles, Wheel Hubs, Brake Calipers, Shock Absorber Mounts | Achieve lightweighting while ensuring safety, thereby reducing fuel and energy consumption and enhancing handling responsiveness. |
|
General Machinery & Automation |
Machine tool protective covers, guide rails, feed plates, cams, gearboxes, cylinder heads, various connecting flanges, and bases. | Cost-effective, readily available, and easy to process, it is the preferred material for achieving equipment weight reduction and rapid delivery. |
|
Item |
Unit |
O(Annealed) |
T4(Solution Heat Treated & Naturally Aged) | T6(Solution Heat Treated & Artificially Aged) | T651(Solution Heat Treated, Aged & Stress Relieved) | T73 (Over-aged for Stress Corrosion Resistance |
|
Density |
g/cm³ |
2.70 | 2.70 | 2.70 | 2.70 |
2.70 |
|
Tensile Strength |
MPa | 120~150 | 205~240 | 260~310 | 255~305 |
230~270 |
|
Yield Strength |
MPa | 55~75 | 110~140 | 240~280 | 235~275 |
200~240 |
| Elongation | % | 18~25 | 14~20 | 8~12 | 9~13 |
10~15 |
| Brinell Hardness (HB) | – | 40~55 | 70~85 | 95~110 | 90~108 |
80~98 |
|
Typical Applications |
– |
Components requiring secondary bending or cold working | Medium-strength components requiring specific plasticity | General-purpose high-strength load-bearing components (Most common) | High-precision, low-deformation precision components | Components for high-stress corrosion environments |
0 Annealed state, T4 natural aging after solid solution treatment, T6 artificial aging after solid solution treatment, T651 stress relief after solid solution treatment, T73 over-aged for stress corrosion resistance.
Forging shape
Standard shapes: discs, bushings, flanges, housings, ring parts
Custom shapes: Various special-shaped parts (customization based on provided drawings is supported)
Size & Weight Range
Outer Diameter: φ50mm ~ φ1200mm
Single Piece Weight: 0.5kg ~ 800kg
Tolerance grades
For rough forgings: ±3mm
For precision forgings: ±0.5mm
For CNC machined parts: ±0.05mm
Supply forms
Forging blanks (rough forging / precision forging), heat-treated semi-finished products, fully precision processed finished products, surface treated finished products.
Logistics Delivery, Completion of Delivery.
Quality Assurance
Company Advantages
Q1: What is the difference between 6061 forgings and 6061 extruded bars?
A: Forgings feature continuous and well-distributed metal flow lines with a denser grain structure. Their transverse mechanical properties, fatigue resistance, and impact strength are far superior to those of extruded bars, making them better suited for structural components subject to multi-directional stresses and alternating loads. Extruded materials, conversely, are more suitable for parts subject to simple axial loading and for general machining applications.
Q2: Can you provide third-party material certification?
A: Yes. We collaborate with CNAS-accredited laboratories to issue internationally recognized material and inspection certificates in accordance with EN10204 standards (Levels 3.1 and 3.2).
Q3: What is the Minimum Order Quantity (MOQ)? How do I request samples?
A: The minimum order quantity for samples starts at 10 pieces, while mass production orders start at 50 pieces. You may directly submit your product drawings and technical specifications; we will provide a proposal and quotation within 48 hours.
Q4: What is the typical lead time?
A: The lead time for standard forged blanks is 15–20 days. For finished parts involving precision CNC machining, the lead time is 30–35 days; expedited orders can be scheduled upon negotiation.
Q5: How should I select the appropriate heat treatment temper?
A: The “0” temper is suitable for parts requiring subsequent cold working or bending. The “T4” temper offers a balance between strength and ductility. The “T6” temper is the preferred choice for general high-strength applications. The “T651” temper is ideal for high-precision components where minimal deformation is critical. The “T73” temper is the preferred choice for applications where there is a risk of stress corrosion cracking.
Q6: Do you offer complementary surface treatment services?
A: Yes, we do. We can provide a range of surface finishing services, including anodizing, hard anodizing, painting/coating, polishing, and passivation.