Overview
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This specialization explores how artificial intelligence and modern data science are transforming athlete health, injury prevention, and long-term performance management. Learners will build a deep and practical understanding of how AI enhances the prevention, monitoring, and prediction of injuries, from foundational models of injury causation to advanced approaches using machine learning, biomarkers, hormonal data, and multi-modal monitoring systems.
Learners will examine how etiological frameworks, workload models, contextual factors, biological rhythms, and maturation processes shape injury risk throughout an athlete’s life cycle. Through football-specific examples, the specialization explains how AI systems integrate data from GPS sensors, wearables, sleep tracking, subjective wellness monitoring, menstrual-cycle information, and environmental conditions to create individualized risk profiles and early-warning systems.
The program also explores the growing role of precision medicine, AR/VR rehabilitation, mental-health monitoring, and smart-stadium technologies in protecting athlete wellbeing. Ethical and governance considerations, such as data privacy, bias, autonomy, and fairness, are woven throughout to prepare learners for responsible use of AI in professional sport.
By completing this specialization, learners will be able to apply AI-enhanced strategies to reduce injury burden, personalize training, and support healthier, more sustainable athletic careers.
Syllabus
- Course 1: Theoretical Bases of Health and Injury Management
- Course 2: Harnessing AI for Injury Prevention and Recovery in Football
- Course 3: Protecting Champions: Training for Injury Prevention
- Course 4: AI and Health: Future Perspectives and Transformations
Courses
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This course explores the emerging frontier of AI-driven health, recovery, and decision-making in elite sport. Learners will discover how artificial intelligence integrates genomic data, hormonal profiles, biomarkers, wearables, mental health indicators, environmental data, and biomechanical inputs to build deeply personalised athlete-care systems. Drawing on leading research in precision medicine, immersive rehabilitation, smart stadium technology, and psychological monitoring, the course uncovers how AI is reshaping athlete health from prevention to recovery and long-term wellbeing. Through real-world examples, learners will examine how AI powers hyper-personalised medical plans, identifies early signs of fatigue or hormonal imbalance, transforms rehabilitation through AR/VR environments, and enhances mental resilience with neurofeedback and cognitive monitoring. The course also addresses the ethical challenges of AI in sports, from privacy and bias to autonomy and fair competition, and explores emerging governance frameworks to protect athletes in a rapidly evolving technological landscape. By the end of this course, learners will understand the major innovations defining the future of AI in athlete health and will be able to apply key principles of responsible, data-driven decision-making.
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This course examines how environmental and contextual factors interact with artificial intelligence to shape injury risk and performance in elite football. Learners explore how playing surfaces, travel schedules, sleep patterns, and gender-specific biomechanics influence athlete health, and how AI models transform these complex variables into actionable prevention strategies. Using evidence-based insights, the course analyses how artificial turf alters movement mechanics, why injury risk differs by position and gender, and how modern clubs adjust training and recovery to surface-specific demands. The course also investigates the impact of travel fatigue and jet lag on physiological and cognitive performance. Learners will understand how AI systems integrate sleep data, circadian disruption, wellness scores, and performance metrics to forecast adaptation timelines and personalise recovery. Through practical football case studies, the course illustrates how machine learning models detect fatigue signatures, optimise training loads, and support individualised interventions. By the end of this course, learners will understand how AI enhances the management of contextual injury risks and will be able to apply data-driven strategies to reduce injuries, optimise readiness, and safeguard long-term player health.
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This course explores how artificial intelligence and data-driven insights are transforming injury prevention for female and youth footballers. Learners will understand how maturation, growth, neuromuscular development, and hormonal physiology influence injury risk, and how AI-supported monitoring tools help detect high-risk patterns before injuries occur. The course covers the unique biological profiles of young athletes, the influence of peak height velocity, coordination windows, and exposure management across maturation stages. It also dives into the specific challenges faced by female athletes, including menstrual-cycle fluctuations, hormonal effects on ligament integrity, neuromuscular control, and gender-specific injury patterns. Using evidence-based models, learners will analyze how to tailor training load, recovery strategies, and neuromuscular programs based on developmental stage or hormonal cycle. The course also presents practical monitoring systems, from cycle-tracking apps to wellness dashboards, that help teams individualize prevention strategies. By the end of this course, learners will be able to apply AI-enhanced frameworks to support safer training environments, design individualized prevention programs, and better protect athletes during key phases of growth and hormonal variation.
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This course introduces the scientific foundations of sports injury causation, workload modelling, and the emerging role of artificial intelligence in injury prevention. Learners will explore how injury mechanisms have evolved from simple monocausal views to multifactorial, dynamic, and systems-based approaches that reflect real athlete complexity. Through clear explanations and practical football examples, the course covers essential concepts such as intrinsic and extrinsic risk factors, the dynamic recursive model, the workload–injury relationship, and modern systems thinking used in elite performance environments. The second part of the course examines precision workload metrics, including acute: chronic workload ratios, high-speed running thresholds, acceleration load, sleep quality monitoring, and contextual load management. Finally, learners discover how AI and machine learning are transforming injury prediction, from multi-modal data integrations to SVM models, decision trees, Bayesian networks, individualised risk profiles, and early-warning systems used in elite clubs. By the end of this course, learners will understand the biological, physiological, and data-driven mechanisms behind injuries, and how modern AI-enhanced monitoring strategies reduce injury risk, optimize performance, and enhance player availability.
Taught by
Marisa Sáenz