In response to the industry challenges such as the difficulty in personalized adaptation of intelligent rehabilitation equipment, the long customization cycle of traditional methods, and poor patient-fit of the equipment, based on the medical-grade 3D printing additive manufacturing technology, we have achieved integrated and precise molding of irregular structures such as rehabilitation braces and robot end-effectors. Without the need for mold-making and with rapid iteration, it can meet the clinical requirements of personalized, small-batch, and high-precision delivery, effectively improving the adaptation accuracy and clinical usage effect of rehabilitation equipment, and facilitating the commercialization of smart rehabilitation medical equipment.

In response to the research and development iteration demands of smart medical digital equipment such as portable diagnostic devices and intelligent monitoring equipment, high-precision 3D printing technology is utilized to achieve integrated molding of the equipment's irregular-shaped shells, precise installation brackets, heat dissipation and flow guiding structures, and embedded wiring components. This solves the problems of difficult forming, slow iteration, and low assembly accuracy in traditional processes, significantly shortening the verification cycle of medical equipment prototypes and the iteration cycle of complete machines, and facilitating the rapid finalization, certification, and launch of medical digital equipment.