Precision aviation parts processing relies on a series of cutting-edge precision machining technologies to precisely transform these high-performance materials into complex geometric shapes of "aerial sprites."
For existing defects, local treatment can be carried out through techniques such as mechanical polishing, chemical etching, or laser repair, but the repair parameters must be strictly controlled to avoid secondary damage.
Although aluminum alloys have the advantage of being lightweight, their coefficient of thermal expansion is about twice that of steel, making them prone to large deformations when temperatures fluctuate.
For complex curved surface parts, contour positioning or coordinate system alignment technology in CNC programming can be used to ensure the relative positional accuracy between each machined surface.
Surface roughness is not only related to the appearance of parts, but also closely related to key functions such as signal transmission efficiency, impedance matching, wear resistance and sealing.
Medical equipment precision parts processing is the "cornerstone technology" that enables these high-tech products. With manufacturing precision at the micron or even nanometer level, it provides indispensable crucial support for the global healthcare ind