Aluminum radiators have become a popular choice for both residential and commercial heating solutions, thanks to their numerous advantages. One of the primary benefits is their superior thermal conductivity, which allows them to heat up quickly and distribute warmth efficiently throughout a space. This makes aluminum radiators ideal for environments where rapid temperature adjustments are necessary, such as in frequently used living areas or offices that require a comfortable working environment.
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Product name | Custom Anodized Aluminum Heatsink Extrusion Aluminum Extruded Profile Power Supply Inverter Aluminum Heat Sink |
Size | Customized |
Shape | Square, round, customized |
Color | According to your requirements |
Material | Aluminum, Aluminum alloy, Zinc, copper |
Surface Treatment | Anodized, Sand blasting, Dusting, Plating |
Process | Casting & Cold Forging & Extrusion , Deburring, Drilling, Threading |
Packing Detail | a) Export standard carton packing. b) If necessary, wooden case will be packed outside. |
Delivery Time | Normally 15 ~ 28 days after receiving the deposit. |
Business Type | OEM & Exporting Manufacturing Small orders accepted |
QC Control | 100% Dimension Inspection |
Drawing Formats | PRO/E, Auto CAD, Solid Works , UG, CAD / CAM / CAE, PDF |
Our Custom Anodized Extrusion Profile Power Supply Inverter Aluminum Heat Sink delivers high-performance thermal management for industries requiring efficient heat dissipation. Crafted from 6063-T6 aluminum (optimal thermal conductivity) using cold forging technology (which enhances material density by 3%), these heatsinks combine 220 W/mK thermal conductivity with splayed pin fin design, achieving 30% lower thermal resistance than traditional extruded solutions . Ideal for power electronics, LED lighting, and automotive applications, our solutions ensure long-term reliability in high-temperature environments (up to 125°C continuous operation).
Splayed pin fins (1.5mm thickness, 3mm pitch) maximize surface area (2500 mm²/cm) while maintaining low airflow resistance (0.5 Pa at 1 m/s), critical for fan-cooled systems .
Integrated mounting holes (±0.1 mm position accuracy) and thermal interface material (TIM) grooves (0.2mm depth) enable direct attachment to PCBs or heat sources, reducing thermal resistance by 15%.
Cold forging enhances material density (2.7 g/cm³) and structural integrity (tensile strength ≥180 MPa), ensuring 1000+ hour salt spray resistance (ASTM B117) for outdoor applications .
Black anodizing (12–25 μm thickness, Class I/II) improves emissivity (0.85) for passive cooling and provides electrical insulation (breakdown voltage ≥500V).
Adjust fin height (10–50mm) and base thickness (2–6mm) to optimize thermal performance: a 30mm fin height achieves 0.3°C/W thermal resistance for 100W devices .
Support for copper plating (5μm thickness) on fins (enhancing thermal conductivity by 18%) and laser etching for part numbering/ branding.
Tested to 100W power dissipation at 25°C ambient temperature with <40°C temperature rise (measured via thermal imaging) .
Finite element analysis (ANSYS Icepak) ensures uniform heat distribution across the entire surface, preventing hotspots that reduce component lifespan.
Power Electronics: Inverters (efficiency ≥96% with heatsink integration), converters (operating temperature ≤85°C), and motor drivers (overload protection up to 150% for 1 minute).
LED Lighting: Streetlights (IP66 rated, 50,000-hour lifespan with heatsink), high-bay lights (100W LED with <60°C junction temperature), and automotive headlights (thermal management for 30W high-beam LEDs).
Automotive: EV battery cooling modules (temperature stability ±2°C to prevent thermal runaway), engine control units (ECUs, operating temperature -40°C to 125°C), and turbocharger intercoolers (pressure drop ≤5 kPa).
Industrial: Laser diodes (thermal resistance ≤0.5°C/W for 50W lasers), welding equipment (cooling for 200A power modules), and server racks (airflow-optimized design for 1U/2U systems).
Thermal Simulation: Free CFD analysis (ANSYS Fluent) to optimize heatsink design for your application, including airflow modeling and temperature distribution mapping.
Complex Geometry Solutions: Expertise in micro-fin machining (fins ≤0.5mm for compact electronics) and variable fin density (higher density in hotspots) for targeted cooling.
Full Compliance: RoHS and REACH certifications, with thermal resistance reports (per ASTM D5470) and material certificates (EN 485-2) provided for design verification.