250x150x30mm Aluminum Heat Sink, Skived Fin Technology, High-Efficiency Cooling for High Power LED

[Xl model]-[custom]-[57712] Aluminum Skived Heat Sink, 250 x 150 x 30 mm Key benefits - Efficient heat dissipation for high-power components, reducing operating temperature and improving reliability. - Precision skiving produces accurate, evenly spaced fins and a smooth, burr-free surface for consistent thermal contact. - Substantial base thickness improves heat spreading from the component into the fin array. Main specifications - Outer size: 250 x 150 x 30 mm. - Material: Aluminum 1060. - Processing method: Skiving. - Base thickness: 5 mm copper. - Fin thickness: 0.7 mm. - Weight: 1080 g plus or minus 30 g. - Package contents: 1 piece. What makes this heat sink stand out - Skived fin construction for close fin spacing and high surface area without secondary assembly. - Smooth machined finish with minimal burrs for easier mounting and better contact with mating surfaces. - Robust base thickness that supports efficient heat spreading to the fins. Function and compatibility - Designed for passive cooling of electronic and power components where a compact, high-performance heat sink is required. - Compatible with LED modules, power supplies, motor drivers, audio amplifiers, single-board computers, and other high-heat-density parts that can be mounted to a flat base. Typical use scenarios - LED lighting modules: mount the heat sink directly to LED arrays to extend runtime and maintain output stability. - Power electronics and motor controllers: use on heatsinks for MOSFETs, voltage regulators, and driver assemblies to improve thermal management under continuous load. - Embedded computing and single-board computer projects: attach to processors or thermal pads to lower component temperatures in compact enclosures. Additional notes - Product color shown in photos may vary slightly due to monitor calibration differences. - Weight tolerance is approximately 30 g and package includes one heat sink. This product description reflects the original model identification and technical specifications.