1. Dent J (Basel). 2026 Sep 18;14(9):605. doi: 10.3390/dj14090605. Artificial Intelligence and Digital Technologies in Orthognathic and Reconstructive Maxillofacial Surgery: Data Availability and Evidence Maturity. Campuzano-Donoso M(1), Fonseca-Lascano YD(2), Galárraga-Taco PF(2), Ubidia-Terán JA(2), Flores-Reimundo IA(2), Insuasti-Veintimilla AE(2), Proaño-Hernández JS(2), Zapata-Nuñez JP(2), Barrera-Meza JJ(2), Parise-Vasco JM(1), Reytor-González C(1). Author information: (1)Center for Evidence Ecosystems, Implementation Science, and Decision-Making (CIDES), Facultad de Ciencias de la Salud y Bienestar Humano, Universidad Tecnológica Indoamérica, Ambato 180150, Ecuador. (2)Facultad de Ciencias Médicas, de la Salud y de la Vida, Escuela de Odontología, Universidad Internacional del Ecuador, Quito 170411, Ecuador. Orthognathic and reconstructive maxillofacial surgery addresses severe dentofacial deformities, post-traumatic defects, and defects following oncologic resection. Across the pathway from preoperative imaging and virtual planning to soft-tissue prediction and intraoperative guidance, artificial intelligence and related digital technologies are increasingly being investigated to support decision-making, simulation, and plan transfer. This structured narrative review synthesizes evidence across that surgical pipeline and uses data availability as an organizing framework for interpreting evidence maturity. Predefined searches of PubMed/MEDLINE, Embase, and Scopus identified English-language peer-reviewed articles published from January 2018 to April 2026, supplemented by selected foundational studies. Within the literature reviewed, automated cephalometric and three-dimensional landmark detection has undergone the most extensive quantitative evaluation, supported by several systematic reviews and meta-analyses and by multicenter retrospective evaluations, including one study with independent external test sets. Artificial intelligence-assisted diagnosis, osteotomy planning, and virtual surgical planning show increasing technical capability, including low-millimeter reposition-vector prediction, although external validation and patient-centered outcomes remain limited. Soft-tissue prediction has advanced through deep learning and finite-element modeling, with selected studies reporting comparable geometric accuracy and substantially faster computation. In contrast, intraoperative augmented reality, navigation, and robot-assisted craniomaxillofacial surgery remain supported mainly by small clinical series, cadaveric studies, and preclinical validation. These technologies demonstrate plan-transfer feasibility in selected settings but do not yet establish broad clinical effectiveness or routine superiority over established workflows. Overall, evidence is more mature when datasets are structured, accessible, and standardized, and less mature when paired longitudinal imaging or intraoperative tracking data are sparse. This association should be interpreted as an organizing hypothesis rather than proof of causality. DOI: 10.3390/dj14090605 PMCID: PMC13605402 PMID: 42782992 Conflict of interest statement: The authors declare no conflicts of interest. 2. Plast Surg (Oakv). 2026 Aug 31:22925503261478090. doi: 10.1177/22925503261478090. Online ahead of print. Patient Perspective on Preoperative Simulation in Plastic Surgery: A Systematic Review of Patient-Reported Outcomes. El Sewify O(1), Gorgy A(2), Sylvain M(3), Legler J(4), Zammit D(2). Author information: (1)Faculty of Medicine, Laval University, Québec City, Quebec, Canada. (2)Division of Plastic and Reconstructive Surgery, McGill University Health Center, Montreal, Quebec, Canada. (3)Faculty of Medicine and Health Sciences, McGill University, Montreal, Quebec, Canada. (4)Division of Orthopaedic Surgery, McGill University Health Center, Montreal, Quebec, Canada. INTRODUCTION: Preoperative simulation technologies are increasingly utilized in plastic surgery to enhance surgical planning and patient communication. While their technical benefits have been established, the impact on patient-reported outcomes (PROs), in particular satisfaction and perceived accuracy, remain underexplored. This systematic review evaluated the effect of preoperative simulation on patient-reported satisfaction, decision-making, and perceived accuracy in breast and facial aesthetic plastic surgery. METHODS: A systematic search of MEDLINE, Embase, and Cochrane databases up to April 2025 identified studies reporting PROs in adult patients undergoing breast (aesthetic or reconstructive) or facial aesthetic surgery with preoperative simulation. Data on demographics, simulation type, satisfaction, accuracy, and complications were extracted and analyzed. RESULTS: Seventeen studies (1333 patients; 970 simulation, 363 control) met inclusion criteria. Breast surgery patients using simulation showed higher satisfaction with appearance (Breast-Q: 75.0 vs 58.1), surgical outcomes (84.9% vs 78.8%), and psychosocial well-being. Simulation patients reported higher satisfaction with the simulation experience (95.4%) and greater trust in their surgeon (95.2%), with lower complication rates (4.1% vs 41.5%). In facial surgery, simulation users demonstrated greater overall satisfaction (79.2% vs 67.3%) and improved understanding of outcomes. Perceived accuracy was higher in breast (91.0%) than facial surgery (74.1%). Across procedures, simulation enhanced shared decision-making and surgeon-patient rapport. CONCLUSION: Current evidence suggests that preoperative simulation may enhance patient satisfaction, trust, and engagement in plastic surgery, particularly in breast procedures. However, findings are based on heterogeneous studies with diverse patient populations, simulation technologies, and outcome measures. Further prospective comparative studies using standardized PRO measures are needed to better define the role of preoperative simulation across aesthetic and reconstructive plastic surgery. Publisher: INTRODUCTION: Les technologies de simulation préopératoire sont de plus en plus utilisées en chirurgie plastique pour améliorer la planification de l’intervention et la communication avec les patients. Leurs avantages techniques sont bien établis, mais leurs effets sur les résultats déclarés par les patients (RDP), notamment la satisfaction et la perception de précision, demeurent peu étudiés. La présente analyse systématique a permis d’évaluer l’effet de la simulation préopératoire sur la satisfaction déclarée par les patients, le processus décisionnel et la perception de précision en chirurgie esthétique mammaire et faciale. MÉTHODES: Après une fouille systématique des bases de données MEDLINE, Embase et Cochrane jusqu’en avril 2025, les chercheurs ont recensé les études abordant les résultats déclarés par des patients adultes ayant subi une chirurgie mammaire (esthétique ou reconstructive) ou une chirurgie esthétique faciale conjuguées à une simulation préopératoire. Ils ont extrait et analysé les données sur les caractéristiques démographiques, le type de simulation, la satisfaction, la précision et les complications. RÉSULTATS: Au total, 17 études (1 333 patients; 970 incluant la simulation, 363 sujets-témoins) respectaient les critères d’inclusion. Les patientes qui avaient subi une chirurgie mammaire après une simulation étaient plus satisfaites de leur apparence (Breast-Q : 75,0 par rapport à 58,1), de leurs résultats chirurgicaux (84,9 % par rapport à 78,8 %) et de leur bien-être psychosocial. Celles qui avaient été exposées à la simulation étaient satisfaites de l’expérience de simulation (95,4 %), avaient plus confiance en leur chirurgien (95,2 %) et présentaient des taux de complications plus faibles (4,1 % par rapport à 41,5 %). En chirurgie faciale, les personnes exposées à la simulation présentaient une meilleure satisfaction globale (79,2 % par rapport à 67,3 %) et comprenaient mieux les résultats attendus. La perception de précision était plus élevée en chirurgie mammaire (91,0 %) qu’en chirurgie faciale (74,1 %). Toutes interventions confondues, la simulation a favorisé des décisions communes et la relation entre le chirurgien et les patients. CONCLUSION: Selon les données actuelles, la simulation préopératoire pourrait améliorer la satisfaction, la confiance et la participation des patients en chirurgie plastique, particulièrement dans le cadre d’interventions mammaires. Ces résultats reposent toutefois sur des études hétérogènes aux populations de patients, aux technologies de simulation et aux mesures de résultats diversifiés. D’autres études prospectives comparatives faisant appel à des mesures normalisées des RDP devront être réalisées pour mieux définir le rôle de la simulation préopératoire en chirurgie esthétique et reconstructive. © 2026 The Author(s). DOI: 10.1177/22925503261478090 PMCID: PMC13530028 PMID: 42682868 Conflict of interest statement: The authors declared no potential conflicts of interest with respect to the research, authorship, and/or publication of this article. 3. J Pers Med. 2026 Aug 13;16(8):427. doi: 10.3390/jpm16080427. Prediction of Three-Dimensional Soft Tissue Changes Following Mandibular PEEK Implantation (Proof of Concept). Zwijnenberg TL(1), Schepers RH(2), Jansma J(2), Glas HH(1). Author information: (1)Clinic for Virtual Surgical Planning, 3D VSP B.V., Hoogwatum 2, 9906 TD Bierum, Groningen, The Netherlands. (2)Department of Oral and Maxillofacial Surgery, Expertcenter for Orthofacial Surgery, Martini Hospital Groningen, Van Swietenplein 1, 9728 NT Groningen, Groningen, The Netherlands. Background/Objectives: Polyetheretherketone (PEEK) implants are increasingly being used for mandibular reconstruction and augmentation, yet predicting the resulting facial soft tissue changes remains challenging. Accurate pre-operative prediction of soft tissue deformation is essential for surgical planning and patient counselling. To the best of our knowledge, this study presents the first application of a computational model for predicting three-dimensional facial soft tissue deformation induced by PEEK implants. Methods: Four patient cases with pre-operative and post-operative cone-beam computed tomography scans were analysed. A mass tensor model was employed to predict soft tissue changes based on the pre-operative soft tissue shape, mandibular anatomy, and the designed PEEK implant. Model accuracy was quantified by comparing predicted outcomes to post-operative scans using landmark-based analysis of chin and jaw positions, as well as surface distance mapping, with a mean error below 2 mm adopted as the criterion for clinically acceptable accuracy. Results: Landmark-based analysis revealed a mean absolute error of 0.9 ± 0.8 mm between the predicted and actual positions. The mean surface distances were 1.3 mm for the jaw-chin region and 1.0 mm for the entire facial region. Conclusions: These results demonstrate the potential of a computational approach for real-time prediction of facial soft tissue changes following PEEK implant placement, achieving clinically relevant accuracy at the cohort level, with a tendency towards under-prediction and one case exceeding the threshold. DOI: 10.3390/jpm16080427 PMCID: PMC13514417 PMID: 42645921 Conflict of interest statement: Tom L. Zwijnenberg is employed as a researcher at 3D VSP. Haye H. Glas is employed as a Technical Physician at 3D VSP and holds equity in the company. 3D VSP commercially designed and supplied the PEEK implants in this study to the hospital where the patients were treated. The rest of the authors of this article declare no conflicts of interest with respect to the research.