OEM Extruded Aluminum Tube Suppliers & Pricelist

High-Strength & High-Precision Custom Extruded Aluminum Tubes. Direct Factory Procurement for Critical Global Engineering Applications.

Foshan Golden Source: Industrial Aluminum Excellence Since 1991

Providing integrated, one-stop extruded aluminum fabrication and precision mechanical component manufacturing.

Established in 1991, Foshan Golden Source Precision Manufacturing Co., Ltd. is a leading manufacturer specializing in high-strength, high-precision customized aluminum profiles, structural tubes, precise machining components, structural assemblies, and welded configurations. Operating from a state-of-the-art, eco-friendly 73,000 square meter factory complex, we possess full vertical integration capabilities.

Our service spectrum spans the entire product lifecycle: in-house alloy casting, mold research & structural design, precision extrusion, post-extrusion CNC machining, structural welding, assembly, and advanced surface finishes. By maintaining full structural and operational ownership of each process, we ensure tight control over geometric dimensions, chemical compositions, and mechanical characteristics.

1991
Founded
73K+ m²
Production Area
1XXX-7XXX
Alloy Spectrum
100%
In-House Quality Control

We serve a diverse range of fields, including aerospace, electric vehicle manufacturing, heat transfer units, structural framing, automated machinery components, high-load hardware systems, 3C electronics housings, and outdoor exploration gear. Backed by global management systems, our products comply with complex regulatory requirements like EU REACH, ensuring supply chain integrity for international OEMs.

Extruded Aluminum Tube Fabrication & Engineering Guide

A deep dive into structural alloy performance, geometric tolerances, and manufacturing workflows.

1. Key Global Trends in Extruded Aluminum Tube Engineering

The global demand for high-strength, lightweight materials is growing rapidly. Industries are shifting toward extruded aluminum tubes to optimize energy efficiency and thermal dissipation. In the automotive sector, particularly electric vehicles (EVs), extruded tubes are widely used in structural battery frames, crash management structures, and cooling lines. The mechanical properties of aluminum help reduce overall weight while maintaining high crashworthiness.

In addition, sustainability has become a priority. Global manufacturers require materials with verified recycled content and low carbon footprints. This shift has driven the adoption of green aluminum and advanced recycling certifications like the Global Recycled Standard (GRS), ensuring the environmental impact of raw materials is kept to a minimum.

2. Selecting the Right Alloy for Structural & Heat Transfer Needs

Choosing the correct aluminum alloy is essential for achieving the required balance of strength, ductility, corrosion resistance, and surface finish. Different alloy series offer distinct advantages:

  • 1XXX Series (e.g., 1050, 1060): Offers maximum electrical and thermal conductivity. Ideal for heat exchangers and electrical conductors where structural strength is not the primary requirement.
  • 3XXX Series (e.g., 3003): Known for excellent corrosion resistance and formability. Often used in HVAC tubing, condenser lines, and general heat-transfer components.
  • 5XXX Series (e.g., 5052): Provides high structural strength, weldability, and resistance to marine corrosion. Ideal for structural frames in marine environments and chemical processing systems.
  • 6XXX Series (e.g., 6061, 6063): The most versatile alloy family for extrusion. 6063 is widely used for architectural profiles and high-finish tubing due to its excellent surface response. 6061 is preferred for structural parts requiring higher yield strength and mechanical performance.
  • 7XXX Series (e.g., 7075): A high-strength alloy containing zinc. Primarily used in aerospace structural members, climbing accessories, and high-stress mechanical components where maximum strength-to-weight ratio is required.

3. Standard Mechanical Properties & Heat Treatment States

The mechanical properties of aluminum tubes are shaped by heat treatment and aging processes. Common tempers include:

Alloy & Temper Tensile Strength (MPa) Yield Strength (MPa) Elongation (%) Primary Application
6063-T5 ≥ 150 ≥ 110 ≥ 8 HVAC, general framing, cosmetic enclosures
6063-T6 ≥ 205 ≥ 170 ≥ 8 Structural frames, pressure conduits
6061-T6 ≥ 290 ≥ 240 ≥ 10 Automotive components, structural brackets, heavy machinery
7075-T6 ≥ 540 ≥ 480 ≥ 7 Aerospace fittings, climbing gear, military devices

Why Source From Foshan Golden Source?

Providing verified metallurgical advantages, consistent product quality, and reliable global delivery.

01

In-House Metallurgical Control

We melt and cast our alloys in-house. This allows us to adjust chemical compositions to optimize physical properties, reduce structural defects, and ensure high material purity for anodizing and surface finishes.

02

Integrated Quality & Precision

By carrying out post-extrusion CNC machining, surface treatment, and testing in-house, we maintain complete control over tolerances while saving production costs. This approach keeps unit prices competitive without compromising quality.

03

Shortened Project Cycles

Our integrated manufacturing line spans design, tooling, extrusion, machining, and surface treatments. This structure reduces lead times and simplifies communication, allowing for faster response to engineering updates.

Compliance and Certifications

Foshan Golden Source is certified to ISO9001:2015 (Quality Management), ISO14001:2015 (Environmental Management), and ISO45001:2018 (Occupational Health & Safety). To support the environmental requirements of global buyers, we maintain GRS (Global Recycled Standard) and RCV certifications, confirming our adherence to eco-friendly production practices and EU REACH regulations.

Certification 1
Certification 2
Certification 3
Certification 4
Certification 5
Certification 6
Certification 7
Certification 8

OEM Aluminum Tube Sourcing & Price Factors

Understanding how material costs, fabrication, and surface treatments influence project budgets.

Extruded aluminum tube pricing is determined by several core variables. Knowing these factors helps procurement and engineering teams optimize designs for better cost efficiency:

  • Aluminum Base Metal Index: The baseline cost is tied to the London Metal Exchange (LME) or Shanghai Futures Exchange (SFE) cash price, fluctuate daily.
  • Processing Premium: Covers the energy, tooling maintenance, and labor required to extrude specific geometries. Intricate hollow shapes generally incur higher extrusion costs than solid bars.
  • Tooling and Die Fees: Designing and manufacturing custom dies is a one-time cost. Simple dies are relatively affordable, while multi-cavity, complex hollow dies require a larger initial investment.
  • Secondary Fabrication: Post-extrusion steps—such as precision cutting, deburring, multi-axis CNC milling, drilling, and tapping—are priced based on cycle times and tolerance requirements.
  • Surface Treatments: Finishes like chemical anodizing, sandblasting, powder coating, and PVDF coatings add protection and aesthetic appeal, and are priced per square meter or component.

Typical Structural Profile Parameter Reference

The following table outlines the general design limits for standard profiles to help align specifications with production capabilities:

Profile Class Standard Wall Thickness Range (mm) Outer Diameter Limit (mm) Standard Geometric Tolerances Recommended Finishes
Round Hollow Tubes 0.8 mm - 12.0 mm φ 10 mm - φ 250 mm ±0.10 mm to ±0.25 mm Acid Etched Anodizing / Matt Sandblasting
Square & Rectangular Tubes 1.0 mm - 15.0 mm 15 x 15 mm to 300 x 150 mm ±0.15 mm to ±0.30 mm Polyester Powder Coating / Mill Finish
Custom Fin/Ribbed Structures 1.2 mm - 10.0 mm Subject to design limits ±0.20 mm High-dissipation Anodizing

We provide full technical documentation and physical test reports with our quotes. This ensures structural calculations can be verified before volume manufacturing begins.

Awards & Manufacturing Merits

Recognitions for clean production, technological upgrading, and consistent quality management.

Foshan Golden Source has received numerous awards from municipal and provincial authorities for environmental performance, technical innovation, and enterprise reliability.

Award 1
Award 2
Award 3
Award 4
Award 5

Interested in our structural profile catalog?

Download our complete engineering catalog, detailing custom alloy series, die design guides, and CNC machining tolerances.

Company Catalogue Download Engineering Catalogue

Frequently Asked Questions

Answers to common inquiries regarding material specifications, customization capabilities, and ordering processes.

Q1: What structural tolerances can Foshan Golden Source hold for machined tubes?
For standard extrusions, we follow EN 755 or EN 12020 standards. When post-extrusion CNC machining is applied, we can hold precision tolerances down to ±0.01 mm for cut-outs, milled faces, and bore diameters, depending on the component size and configuration.
Q2: Do you support custom alloy blending for specific project requirements?
Yes. Because we melt and cast alloys in-house, we can adjust trace element compositions—such as iron, silicon, and magnesium—to balance tensile strength, elongation, and surface treatment response for your application.
Q3: How are die costs managed for custom extrusion profiles?
Tooling costs are quoted based on the profile's shape, dimensions, and wall thickness. In many cases, we offer tool fee amortization or refunds once your cumulative order volume meets a pre-agreed milestone.
Q4: What certifications confirm the environmental footprint of your materials?
We hold ISO14001, GRS (Global Recycled Standard), and RCV certifications. These verify that our production systems support recycled aluminum traceablity and comply with EU REACH requirements.
Q5: What are the standard lead times for custom tooling and production?
Custom mold design and die fabrication typically take 10 to 15 days. Sample production and testing require an additional 5 to 7 days, followed by mass production which ranges from 15 to 25 days depending on the volume and secondary operations.