Aoli Aluminum
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| Item | Battery case aluminum profile |
| Material | 6063 \ 6061 \ 6060 |
| Temper | T5 / T6 |
| Thickness | 0.8 - 5.0 mm |
| Length | 6 m (customizable) |
| Surface Treatment | Mill finish · Power coating · Anodizing · Electrophoresis · Fluorocarbon coating · Wood grain, etc. |
| Color | According to customer requirements (customizable) |
| Service Support | Drilling · Milling · Cutting · Welding · Bending · Assembling · CNC |
| Packing Details | Inside: packed with protective film to protect each piece |
| Outside: wrap to be bundles by shrink plastic bag | |
| Delivery Time | Die developing and sample testing: 7 - 10 days |
| Mass production completed: 15 - 30 days | |
| MOQ | 500 kg |
The manufacturing of extruded aluminum battery housings is a multi-stage process that transforms aluminum alloy billets into strong, lightweight, and precisely formed enclosures. This method is favored for creating long, robust profiles with a constant cross-section, ideal for battery packs in various applications.
The process begins with cylindrical logs of a specific aluminum alloy (commonly from the 6000 series, like 6061 or 6063, for their good strength and extrudability). These billets are pre-heated in a furnace to a precise temperature (typically between 400 - 500°C). This thermal treatment softens the metal, making it pliable enough for extrusion without melting it.
The heated billet is loaded into the extrusion press. A hydraulic ram applies immense pressure, forcing the softened aluminum through a precision-engineered steel die. The die's opening defines the housing's final cross-sectional profile, including its external walls, internal ribs for structural support, and channels for thermal management or cable routing. The emerging profile is a continuous length of the shaped aluminum.
As the profile exits the die, it is rapidly cooled using air or water quenching. This "freezes" the profile's shape and initiates the strengthening process. The long, straight profile is then mechanically stretched. This critical step corrects any twisting or dimensional irregularities and aligns the metal's grain structure.
The profiles undergo artificial aging (precipitation hardening) in an oven. This heat treatment allows the alloy's microstructure to fully develop, bringing the aluminum to its specified temper (e.g., T5 or T6) and achieving its final mechanical strength and hardness. The hardened profiles are then cut to the precise required lengths for individual battery housings.
Our premium black aluminum battery housing is engineered to protect and optimize EV power systems. Designed for e-bikes, e-scooters, and compact electric vehicles, its robust structure safeguards battery cells against impact and vibration while promoting efficient thermal management.
Featuring integrated mounting channels and precision-cut profiles, this enclosure ensures secure installation and streamlined integration with various vehicle frames. Ideal for manufacturers seeking durable, lightweight solutions that meet international safety standards.
The corrosion-resistant finish withstands diverse weather conditions, making it suitable for urban commuter vehicles and recreational e-mobility products. Its modular design allows customization for different battery configurations, balancing protection, weight efficiency, and sleek aesthetics.
