Copyright
        ©The Author(s) 2025.
    
    
        Artif Intell Med Imaging. Sep 8, 2025; 6(2): 108028
Published online Sep 8, 2025. doi: 10.35711/aimi.v6.i2.108028
Published online Sep 8, 2025. doi: 10.35711/aimi.v6.i2.108028
            Table 1 Summary of studies on artificial intelligence applications in medical imaging for plastic surgery, detailing the surgical procedure, outcomes measured, artificial intelligence utilization, type of artificial intelligence used, and key findings
        
    | Ref. | Surgical procedure | Outcome measured | AI used for | Type of AI used | Results | 
| Zhu et al[21], 2016 | Mandibular osteotomy | Osteotomy accuracy and intraoperative deviations | Surgical navigation and osteotomy guidance | Augmented reality-based surgical navigation | Significant improvement in osteotomy precision | 
| Qu et al[17], 2015 | Distraction osteogenesis | Postoperative symmetry and distractor placement | Enhancing distractor placement accuracy | Machine learning-enhanced augmented reality | Enhanced postoperative symmetry and reduced operative time | 
| Le et al[18], 2023 | DIEP flap reconstruction | Perforator detection accuracy compared to CTA | Preoperative vascular imaging | Deep learning-based vascular mapping | High accuracy in perforator detection | 
| Hummelink et al[19], 2019 | DIEP flap breast reconstruction | Effectiveness of 3D vascular mapping | Improved intraoperative vascular mapping | 3D convolutional neural networks | Reduced operative time and improved flap selection | 
| Pereira et al[20], 2018 | Perforator identification in anterolateral thigh flaps | Agreement between thermographic imaging and CTA | Validation of AI-assisted thermography | Computer vision for thermographic analysis | High correlation between AI-based and CTA imaging | 
| Zhu et al[21], 2018 | Mandibular osteotomy | Precision in osteotomy execution | Augmented reality guidance for surgery | Neural network-based surgical guidance | Improved accuracy in osteotomies | 
| Kim et al[22], 2019 | Robotic-assisted microsurgery | Enhancements in microsurgical precision | Microsurgical planning and robotic assistance | Robotic-assisted AI algorithms | Significant improvements in microsurgical execution | 
| Brenac et al[23], 2024 | Perforator flap harvest | Accuracy in perforator visualization | AI-assisted imaging for intraoperative planning | AI-powered vascular imaging | Greater accuracy in vascular visualization | 
| Ejaz et al[24], 2024 | Flap viability and perfusion assessment | Detection of ischemic areas in free flaps | Predicting flap ischemia | Sensor-based deep learning models | Early ischemia detection and improved intervention success | 
| Avila et al[25], 2024 | Postoperative wound assessment | Wound classification accuracy and prediction of healing outcomes | Postoperative monitoring and complication assessment | Convolutional neural networks | High accuracy in wound classification and healing prediction | 
| Dhawan et al[26], 2024 | AI-driven risk prediction | Postoperative risk prediction using clinical variables | Personalized risk stratification | Risk assessment models using machine learning | Improved risk prediction accuracy | 
| Chen et al[40], 2024 | Wound healing assessment | Healing time prediction based on wound morphology | Deep learning-driven wound classification | Deep learning for wound classification | AI accurately predicted wound healing times | 
| Bukret et al[27], 2021 | Aesthetic surgery risk prediction | Accuracy of AI models in predicting aesthetic surgery complications | Machine learning for surgical risk assessment | Machine learning-based risk models | Reduced complications through AI-based risk models | 
| Borsting et al[28], 2019 | Rhinoplasty outcome prediction | Predictive success of AI models in rhinoplasty outcomes | Outcome prediction in rhinoplasty | Deep learning outcome prediction models | High predictive accuracy of rhinoplasty outcomes | 
| Farid et al[29], 2024 | Breast reconstruction planning | Optimization of surgical techniques in breast reconstruction | Predictive modeling for reconstruction | Neural network predictive modeling | Enhanced decision-making in breast reconstruction planning | 
- Citation: Yamin MA, Raquepo TM, Tobin M, Posso AN, Cauley RP. Applications and challenges of artificial intelligence in plastic surgery imaging: A narrative review. Artif Intell Med Imaging 2025; 6(2): 108028
 - URL: https://www.wjgnet.com/2644-3260/full/v6/i2/108028.htm
 - DOI: https://dx.doi.org/10.35711/aimi.v6.i2.108028
 
