Laser additive manufacturing provides a new process approach for the design and manufacturing of high-performance metal components, which can solve new challenges related to materials, structures, processes, performance, and applications in research and development activities in the fields of aviation and aerospace.

There are a large number of customized needs in modern medical industry that are difficult to be satisfied through standardized and mass production. 3D printing technology can customize exclusive medical auxiliary devices for patients based on their needs from time to time, such as postoperative repair protectors, crutches, etc; 3D printing can also assist doctors in treatment, such as preoperative models, printing high-precision medical devices, etc; High precision 3D printers can find its applications in clinical surgeries such as orthopedics, plastic surgery, and surgery; and dental correction and restoration in the field of dentistry.

3D printing technology can be utilized to print some molds with intricate internal structure that are impossible to be created through casting or machining. Moreover, the complexity will not incur additional costs as long as it meets the construction range of 3D printers and. This enables mold manufacturers to better control mold temperature, reduce rejects, shorten cycle time, improve dimensional stability and surface finish, and facilitate demolding.

The application of 3D printing technology in the automotive industry has made significant progress, and even mass production of some automotive components has been realized. Although 3D printing of an entire car is still unrealistic at present, it has shown extraordinary significance for the entire automotive industry production system. It may be one of the key pillars supporting the future automotive revolution.