Khaohoen Angkoon, Powcharoen Warit, Yoda Nobuhiro, Rungsiyakull Chaiy, Rungsiyakull Pimduen
Lecturer, Department of Restorative Dentistry, Faculty of Dentistry, Naresuan University, Phitsanulok, Thailand.
Assistant Professor, Department of Oral and Maxillofacial Surgery, Faculty of Dentistry, Chiang Mai University, Chiang Mai, Thailand.
J Prosthet Dent. 2025 Apr 10. doi: 10.1016/j.prosdent.2025.03.038.
Computer-assisted implant placement has been reported to provide better accuracy, particularly in complex situations, while noncomputer-assisted approaches remain effective for more straightforward procedures. However, comprehensive evidence comparing these approaches across various clinical scenarios is limited. Evaluating factors such as cost-effectiveness, edentulous span, and clinician expertise is essential for optimizing treatment planning.
The purpose of this systematic review and meta-analysis was to compare the accuracy of dental implant placement between computer-assisted and noncomputer-assisted workflows.
A systematic search of the PubMed, Embase, and Scopus databases (up to August 2024) was conducted using keywords related to surgery, computer-assisted techniques, and dental implants. The primary outcomes were angular, 3-dimensional (3D)-coronal, and 3D-apical deviations. Studies were selected based on predefined inclusion and exclusion criteria, and quantitative meta-analysis was performed.
Forty-five studies met the inclusion criteria. In clinical studies, meta-analysis showed a mean difference (MD) of 0.65 mm (95% CI: 0.56 to 0.74; P<.001) for global coronal deviation, 1.10 mm (95% CI: 0.95 to 1.20; P<.001) for global apical deviation, and 3.87 degree (95% CI: 3.31 to 4.44; P<.001) for angular deviation, favoring the computer-assisted implant workflow, based on 22 studies. In in vitro studies, the MD was 0.45 (95% CI: 0.36 to 0.54; P<.001) for global coronal deviation, 0.63 mm (95% CI: 0.50 to 0.76; P<.001) for global apical deviation, and 3.60 degree (95% CI: 2.66 to 4.54; P<.001) for angular deviation, favoring the computer-assisted implant workflow, with data from 23 studies. Among the navigation systems, robotic-assisted implant surgery (r-CAIS) achieved the highest clinical accuracy across all metrics compared with noncomputer-assisted techniques.
Overall, computer-assisted implant workflows significantly improved the accuracy of implant placement, with r-CAIS demonstrating the highest accuracy in clinical scenarios. However, factors such as cost-effectiveness, edentulous span, and clinician expertise must be considered, as conventional methods remain suitable alternatives in certain straightforward situations. These findings highlight the importance of tailored treatment planning to optimize the outcomes of implant-supported prostheses.
据报道,计算机辅助种植体植入具有更高的准确性,尤其是在复杂情况下,而非计算机辅助方法在更简单的手术中仍然有效。然而,在各种临床场景中比较这些方法的全面证据有限。评估成本效益、无牙颌跨度和临床医生专业知识等因素对于优化治疗计划至关重要。
本系统评价和荟萃分析的目的是比较计算机辅助和非计算机辅助工作流程在牙种植体植入准确性方面的差异。
使用与手术、计算机辅助技术和牙种植体相关的关键词,对PubMed、Embase和Scopus数据库(截至2024年8月)进行系统检索。主要结局指标为角度、三维(3D)冠向和3D根尖向偏差。根据预先定义的纳入和排除标准选择研究,并进行定量荟萃分析。
45项研究符合纳入标准。在临床研究中,荟萃分析显示,基于22项研究,整体冠向偏差的平均差值(MD)为0.65mm(95%CI:0.56至0.74;P<0.001),整体根尖向偏差为1.10mm(95%CI:0.95至1.20;P<0.001),角度偏差为3.87度(95%CI:3.31至4.44;P<0.001),支持计算机辅助种植工作流程。在体外研究中,基于23项研究的数据,整体冠向偏差的MD为0.45(95%CI:0.36至0.54;P<0.001),整体根尖向偏差为0.63mm(95%CI:0.50至0.76;P<0.001),角度偏差为3.60度(95%CI:2.66至4.54;P<0.001),支持计算机辅助种植工作流程。在导航系统中,与非计算机辅助技术相比,机器人辅助种植手术(r-CAIS)在所有指标上均实现了最高的临床准确性。
总体而言,计算机辅助种植工作流程显著提高了种植体植入的准确性,r-CAIS在临床场景中显示出最高的准确性。然而,必须考虑成本效益、无牙颌跨度和临床医生专业知识等因素,因为传统方法在某些简单情况下仍然是合适的选择。这些发现强调了量身定制治疗计划以优化种植支持修复体效果的重要性。