1. Heat dissipation design
Heat dissipation column design:
The back of 48V DCDC Converter Housing-Aluminum Die-Casting Auto Parts is designed with 225 heat dissipation columns, which can increase the heat dissipation area and improve the heat dissipation efficiency.
The arrangement and layout of the heat dissipation columns are carefully designed to ensure that the heat can be evenly distributed and effectively dissipated.
Material selection:
ADC12 aluminum alloy is used as the main material. ADC12 aluminum alloy has good thermal conductivity and can effectively transfer heat from the inside to the outside.
The low density of aluminum alloy makes the weight of the entire product relatively light while maintaining good strength and durability.
2. Heat dissipation performance evaluation
Heat dissipation efficiency:
Due to the use of efficient heat dissipation design and high-quality heat dissipation materials, this product has a high heat dissipation efficiency.
Under normal working conditions, it can effectively dissipate the heat generated inside to the external environment, ensuring that the operating temperature of 48V DCDC Converter Housing-Aluminum Die-Casting Auto Parts remains within a safe range.
Thermal stability:
The product has undergone rigorous thermal stability testing to ensure that it can maintain stable heat dissipation performance under high temperature and long working conditions.
This helps to extend the service life of the 48V DCDC Converter Housing-Aluminum Die-Casting Auto Parts and improve the reliability of the entire system.
3. Heat dissipation effect in actual application
Ambient temperature:
The heat dissipation effect of the product will be different under different ambient temperatures.
At higher ambient temperatures, the heat dissipation performance of the heat dissipation column and aluminum alloy material will play a greater role to ensure the normal working temperature of the product.
Workload:
The workload of the 48V DCDC Converter Housing-Aluminum Die-Casting Auto Parts will also affect the heat dissipation effect of the product.
Under high load conditions, the product will generate more heat, but thanks to its efficient heat dissipation design, it can still maintain stable heat dissipation performance.