Artificial Intelligence in Sports and Exercise Medicine

This abstract has open access
Abstract Description

The application of AI in sports and exercise medicine is transforming the field by enhancing injury prevention, diagnosis, rehabilitation, and performance optimization. For injury Prevention & risk assessment, AI algorithms analyze motion data from wearables, cameras, or sensors to assess biomechanics, gait, or technique, identifying patterns linked to injury risks (e.g., ACL tears, stress fractures), as well can do predictive analytics with machine learning models process historical and realtime data (training load, sleep, biomarkers), to flag athletes at risk of overuse injuries. AI can also contribute in diagnosis & imaging, enhances interpretation of MRI, X-ray, or ultrasound scans, detecting subtle fractures, ligament tears, or muscle injuries with speed and accuracy, or even symptom analysis to triage symptoms and recommend specialist referrals. AI have also been used to design adaptive recovery protocols based on injury type, progress, and biometric feedback, for develop personal rehabilitation planning, as well as monitoring through smartphones or wearables to ensure patients perform exercises correctly, reducing re-injury risks. AI has also been widely applied in performance optimization, assisting development of tailored training programs, integrates data (sleep, nutrition, heart rate) to create dynamic training regimens that balance intensity and recovery, as well as providing real-time feedback through wearables for instant insights on hydration, fatigue, or technique during workouts. Recently, sports medicine practitioners have making use of AI in concussion management, for diagnosis, monitoring, analyzes balance, cognitive tests, or speech patterns to detect concussions and track recovery, informing return-to-play decisions. In elite sports talent identification, AI has been deployed for predictive scouting, using machine learning to evaluate physical/technical metrics (e.g., speed, coordination) in youth athletes to predict sport-specific potential. AI can provide personalized nutrition & recovery recommendations by suggesting diets, hydration, or recovery strategies based on metabolic data, activity levels, and goals. Many rehabilitation personnel have making use of AI to guide individual rehabilitation remotely (Virtual Therapy & Telerehabilitation), via virtual assistants or apps to guide patients through exercises remotely, using cameras to correct form and track progress. Last but not the least, many sports medicine practitioners are using AI for big data analysis in researches, to identify trends in injury epidemiology or treatment efficacy by aggregating data from global studies and electronic health records.

Similar to AI application in many disciplines, with rapidly growing applications of AI, there are also challenges & considerations in engaging AI in sports & exercise medicine. Ethical & privacy issues in ensuring secure handling of sensitive athlete data, how to integrate Human-AI collaboration with AI supplementing & enhancing clinician practice, rather than replaces clinician expertise, and how to avoid bias & inaccuracy to avoid skewed predictions, are some of the concerns that we have to handle. Nevertheless, I do strongly believe that AI's integration into sports & exercise medicine is driving precision, personalization, and proactive care, ultimately improving outcomes for athletes and patients alike.

Submission ID :
HAC1294
Submission Type
Chairman of Department of Orthopaedic and Traumatology; Associate Dean of Mainland Affairs, Faculty of Medicine
,
The Chinese University Of Hong Kong

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