High-performance Technology for Processing Aerospace Machinery Parts

High-performance machining technology is an engineering technology that integrates key elements such as high-speed machining technology (HSM), multi-axis linkage machining technology, micro-machining technology and difficult-to-machine materials technology, aiming to improve material processing efficiency, accuracy and performance. In the aerospace field, these technologies are used to manufacture high-demand parts to cope with complexity and reliability requirements, driving the continuous advancement of manufacturing technology in this field.

High performance processing technology applicated in manufactoring aerospace machinery parts including High-speed processing technology, Multi-axis linkage processing technology, Micromachining technology, Typical aviation difficult-to-process materials.

• High-speed processing technology.

High-speed machining technology in the aerospace sector plays a key role in producing precision and complex parts. It shortens the production cycle and improves the surface quality of the parts by increasing the material removal rate and optimizing the machining path. In high-speed milling, solid and indexable ball-nose end mills are used to mill complex structures on convex and concave and 5-axis CNC milling machines.

• Multi-axis linkage processing technology

In the aerospace industry, multi-axis linkage machining technology, especially the application of four-axis and five-axis CNC machine tools, has significantly improved the production efficiency and quality of key parts and brought significant innovation.

• Micromachining technology

In the aerospace field, micro-machining technologies, especially micro-milling, micro-electrical discharge machining, laser micro-machining and ultrasonic machining, play a vital role. These technologies play a key role in manufacturing microscopic components with complex shapes and high precision requirements. Micromilling technology shows advantages in manufacturing micro-components with high precision and complex geometries. In the field of micro-electric discharge machining, a balance between electrode wear, material removal rate and working gap is achieved, thereby improving cutting efficiency.

The development of laser micromachining technology has significantly improved the local processing performance of various materials. Ultrasonic processing technology has also made important progress.

The comprehensive application of micromachining cutting technologies not only demonstrates their unique advantages, but also shows great potential in the manufacturing of micro-components with high precision and complex designs. As micro-cutting technology continues to develop, it will continue to promote progress in the aerospace and other precision manufacturing industries.

• Typical aviation difficult-to-process materials

In the aerospace industry, research on precision machining technologies for typically difficult-to-machine materials such as titanium alloys, aluminum alloys, and carbon fiber composites is crucial. These materials play an important role in the manufacturing of critical aviation parts due to their excellent mechanical strength and corrosion resistance, but they also bring processing challenges.

To sum up, in the aerospace field, processing technology of typical difficult-to-machine materials is the key to achieving high-performance manufacturing of critical aerospace parts. The development of these cutting technologies not only improves processing efficiency and precision, but also opens up new possibilities for the cutting, processing and forming of other new difficult-to-machine materials.