Artificial intelligence in plastic and reconstructive surgery: clinical applications, translational readiness and barriers to real-world implementation

Authors

DOI:

https://doi.org/10.18203/2320-6012.ijrms20264216

Keywords:

Artificial intelligence, Plastic surgery, Reconstructive surgery, Machine learning, Clinical implementation

Abstract

Artificial intelligence (AI) is expanding rapidly in plastic and reconstructive surgery, but the central question has shifted from whether an algorithm can perform a task to whether it can generalize, improve clinical decisions, and remain safe after deployment. This critical review examines contemporary AI applications in burn assessment, facial and craniofacial surgery, microsurgical free-flap monitoring, breast reconstruction, and patient communication, with emphasis on translational readiness rather than cataloguing technologies. A structured PubMed/MEDLINE search through September 6, 2026 was supplemented by reference chaining from recent systematic reviews and reporting guidance. Image-based systems have reached high performance for selected bounded tasks, including automated free-flap monitoring (area under the curve 0.960), burn-depth assessment (95% accuracy in a prospective clinical cohort), and some externally validated breast-reconstruction outcome models (area under the curve up to 0.97). In contrast, prediction of multifactorial complications remains less discriminative, and general-purpose large language models have shown clinically important limitations in factual accuracy and postoperative triage. The principal barrier is therefore not algorithm development but clinical translation: external validation, prospective impact studies, subgroup performance, human-AI workflow design, data governance, and post-deployment monitoring remain inconsistently addressed. Plastic surgery is well positioned to benefit from AI because it is image-rich and outcome-sensitive, but implementation should prioritize narrowly defined tasks with measurable clinical value and preserve surgeon oversight, patient-reported outcomes, and transparent lifecycle governance.

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Published

2026-10-31

How to Cite

Fuentes, S. M. S., Rosales, M. A. C., Cisneros, A. N. G., Garza, M. S. R., González, L. F. H., Márquez, V. G., & Olmos, N. L. F. (2026). Artificial intelligence in plastic and reconstructive surgery: clinical applications, translational readiness and barriers to real-world implementation . International Journal of Research in Medical Sciences, 14(11), 5460–5468. https://doi.org/10.18203/2320-6012.ijrms20264216

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Section

Review Articles