During the design phase, we conducted an in-depth investigation of the power, heat dissipation requirements and installation environment of the switching power supply, and used simulation analysis to optimize the shell structure, such as increasing the density of heat dissipation holes for high-power power supplies, or strengthening the shell protection thickness for outdoor power supplies. The production process adopts a multi-station continuous stamping process, combined with precision molds, to achieve integrated punching, bending and forming to ensure product consistency. Surface treatment can be done by spraying, anodizing and other processes to enhance anti-corrosion and anti-rust properties, and adapt to complex environments such as humidity and dust.

In actual applications, a protective barrier is built for the switching power supply of industrial automation equipment to ensure stable operation in harsh factory environments; it helps the power dissipation of communication base stations to ensure uninterrupted signal transmission; it also improves the texture and durability of consumer electronic power supplies (such as computer power supplies). With the characteristics of "precise adaptation, strong protection, and high integration", it has become an indispensable component in the manufacturing of switching power supplies, promoting the iterative upgrade of power supply products in terms of performance and reliability, and providing solid hardware support for power supply in various industries.