1.Clinical application standard of dynamic navigation technology in implant surgery.
Chinese Journal of Stomatology 2025;60(2):105-108
Dynamic navigation technology can "real-time guide" the implantologist to place the implant in the alveolar bone of the missing tooth area according to the preoperative design of the optimal site and path, making the whole implant surgery process more safe and precise. In order to further promote the standardized application of oral implant dynamic navigation technology, China Association of Gerontology and Geriatrics has convened distinguished experts to engage in deliberations and develop the standard. This standard covers the basic requirements, indications and contraindications, operation procedures, common complications and treatment measures, and accuracy verification. This standard can be used as a reference for the use of dynamic navigation technology in implant surgery.
Humans
;
Dental Implantation, Endosseous/standards*
;
Surgery, Computer-Assisted/standards*
;
Dental Implants
;
Surgical Navigation Systems/standards*
2.Application of mixed reality-based surgical navigation system in craniomaxillofacial trauma bone reconstruction.
Chengzhong LIN ; Yong ZHANG ; Shao DONG ; Jinyang WU ; Chuxi ZHANG ; Xinjun WAN ; Shilei ZHANG
West China Journal of Stomatology 2022;40(6):676-684
OBJECTIVES:
This study aimed to build a surgical navigation system based on mixed reality (MR) and optical positioning technique and evaluate its clinical applicability in craniomaxillofacial trauma bone reconstruction. Me-thods We first integrated the software and hardware platforms of the MR-based surgical navigation system and explored the system workflow. The systematic error, target registration error, and osteotomy application error of the system were then analyzed via 3D printed skull model experiment. The feasibility of the MR-based surgical navigation system in craniomaxillofacial trauma bone reconstruction was verified via zygomatico-maxillary complex (ZMC) reduction experiment of the skull model and preliminary clinical study.
RESULTS:
The system error of this MR-based surgical navigation system was 1.23 mm±0.52 mm, the target registration error was 2.83 mm±1.18 mm, and the osteotomy application error was 3.13 mm±1.66 mm. Virtual surgical planning and the reduction of the ZMC model were successfully conducted. In addition, with the guidance of the MR-based navigation system, the frontal bone defect was successfully reconstructed, and the clinical outcome was satisfactory.
CONCLUSIONS
The MR-based surgical navigation system has its advantages in virtual reality fusion effect and dynamic navigation stability. It provides a new method for doctor-patient communications, education, preoperative planning, and intraoperative navigation in craniomaxillofacial surgery.
Humans
;
Surgical Navigation Systems
;
Augmented Reality
;
Plastic Surgery Procedures
;
Skull/surgery*

Result Analysis
Print
Save
E-mail