
Master the body's bioenergetics and ATP cycles across phosphogen, glycolysis, and oxidative pathways. Link these energy systems to targeted nutrition strategies for athletic performance.
Analyze ATP production pathways—phosphocreatine system, glycolytic pathway, and oxidative system—to explain creatine phosphate, ADP recycling, lactate formation, and mitochondrial energy for improved aerobic capacity.
Develop a dynamic TDEE-based plan by calculating BMR, TEF, NEAT and PAL to tailor nutrition for training, recovery, and precise body composition goals.
Learn how metabolic equivalents (METs) quantify exercise intensity from rest to vigorous activity, convert energy expenditure to calories using weight and duration, and apply these values to periodised fueling strategies.
Distinguish energy balance from energy availability and calculate energy availability as the difference between intake and exercise energy expenditure per kilogram of fat-free mass; maintain 30–45 kcal/kg fat-free mass daily.
Discover how carbohydrates fuel high-intensity performance by classifying simple and complex sugars. Apply glycemic index, glycemic load, fiber, and meal composition to sustain energy and support recovery.
Explore how glycogen stores in muscle and liver power high-intensity performance, how glycogenesis and glycogenolysis are regulated by insulin, glucagon, and epinephrine, and how pacing and carbohydrate fueling extend endurance.
Master muscle protein synthesis to build lean tissue by supplying essential amino acids like leucine and distributing protein across four to five meals around workouts.
Explore how lipolysis releases fatty acids, beta-oxidation in mitochondria, and albumin transport power endurance, with training shifting fat use toward higher intensities near the fat max zone at 60–70%.
fuel athletic recovery by balancing soluble and insoluble fibre to support gut health and microbiome, hydration, and nutrient absorption around training and events.
Explore how vitamins act as coenzymes in energy metabolism, especially B vitamins, unlocking glycolysis, the citric acid cycle, and sustained athletic performance.
Explore how minerals and electrolytes power muscle function, focusing on sodium, potassium, calcium, and magnesium, the sodium–potassium pump, and balancing trace minerals to sustain nerve signaling, contraction, and recovery.
Explore thermoregulation and the role of hydration and electrolytes in cooling the body during intense exercise, including evaporation, sweat dynamics, heat acclimation, and personalized fluid strategies.
Dehydration impairs cognitive function, reducing focus, reaction time, and decision-making as brain tissue shrinks and neurotransmitter signaling falters, even at 2% body mass loss.
Apply personalized hydration protocols to achieve euhydration, using pre-exercise fluid loading and sweat rate testing. Rehydrate after training with electrolytes and oral rehydration solutions at 150% of fluid deficit.
Master pre-exercise fueling with easily digestible carbohydrates timed 3–4 hours before and a 60–90 snack, plus lean protein to protect muscle and support hydration, while avoiding high fibre and fat.
Master intra-workout fueling with glucose-fructose to deliver 30–60 g/h carbs, 500–700 mg sodium per litre, and a 6–8% solution, training the gut with drinks, gels, or chews.
During the post-exercise recovery window, consume high-quality protein (0.4–0.5 g/kg, leucine-rich) and carbohydrates to maximize muscle protein synthesis via the mTOR pathway, replenish glycogen, and reduce muscle protein breakdown.
Embrace nutritional periodization to align fueling with a macrocycle and mesocycle, balancing calories, carbohydrates, and protein across off-season, preparatory, competitive, and transition phases for peak performance.
Analyze body composition beyond scale weight using DXA and BIA, track trends with consistent testing, and implement a periodised, high-protein plan that preserves muscle and performance.
Develop an evidence-based framework to classify ergogenic aids into groups A to D, prioritizing proven options like creatine, caffeine, beta-alanine, and sodium bicarbonate, while emphasizing safety and third-party testing.
Understand how creatine monohydrate boosts intramuscular phosphocreatine for rapid ATP regeneration. Learn how beta-alanine increases carnosine to buffer hydrogen ions during repeated high-intensity bursts and the practical dosing strategies.
Discover how caffeine, a nervous system stimulant, boosts alertness and lowers effort via adenosine antagonism, enhances fat oxidation and glycogen sparing; optimize dose (3–6 mg/kg) and timing (~60 minutes before).
Explore how vegan athletes manage energy density, protein quality and amino acid diversity, plus micronutrient needs, to support high performance, recovery, and injury prevention.
Tailor nutrition for youth and master athletes, emphasizing energy availability, bone health with calcium and phosphorus, protein per meal (0.4–0.5 g/kg, leucine), antioxidants, omega-3, vitamin D, energy balance, and hydration.
This course contains the use of artificial intelligence
This an Unofficial Course.
This course provides a comprehensive, science-based exploration of sports nutrition and energy metabolism, designed to help learners understand how the human body produces, utilizes, and regulates energy to support physical performance, recovery, and long-term health. Grounded in exercise physiology and nutritional biochemistry, the course bridges theory and practical application, enabling learners to make informed, evidence-based nutrition decisions for athletic and active populations.
Learners begin by developing a strong foundation in human bioenergetics, including how energy is generated during movement, the role of ATP production pathways, and how total daily energy expenditure is calculated and applied in real-world settings. Key concepts such as metabolic equivalents, energy balance, and energy availability are explained in a clear and applied manner, helping learners understand how training load, lifestyle, and nutrition interact to influence performance and health.
The course then explores macronutrients in depth, examining how carbohydrates, proteins, and fats function during different types of exercise. Learners will gain a clear understanding of carbohydrate classification, glycemic index, glycogen storage and utilization, and their implications for endurance and high-intensity performance. Protein metabolism, amino acid requirements, and muscle protein synthesis are covered with practical guidance for supporting training adaptation and recovery. The role of dietary fats and fiber in metabolic health, aerobic performance, and gut function is also discussed, emphasizing balanced and sustainable nutrition strategies for athletes.
Micronutrients and fluid regulation are addressed through a physiological lens, highlighting how vitamins act as coenzymes in energy metabolism and how minerals and electrolytes support muscle contraction, nerve signaling, and overall performance. Learners will understand the mechanisms of thermoregulation, the performance and cognitive consequences of dehydration, and how to design effective hydration and rehydration strategies tailored to different training environments and individual needs.
A significant portion of the course focuses on nutrition timing and performance strategies. Learners will explore pre-exercise fueling principles, intra-workout carbohydrate and electrolyte delivery, and post-exercise recovery nutrition to optimize muscle protein synthesis and glycogen replenishment. Nutritional periodization across training cycles is explained to help align dietary intake with training goals, competition demands, and body composition management in a healthy and performance-focused manner.
The course also critically examines ergogenic aids using an evidence-based approach. Learners will learn how supplements are classified, which aids are supported by scientific research, and how substances such as creatine, beta-alanine, and caffeine affect physiological performance. Special attention is given to nutritional considerations for vegan athletes and age-specific requirements for youth and master athletes, ensuring inclusive and practical guidance across diverse athletic populations.
By the end of this course, learners will possess a deep understanding of how nutrition and energy metabolism influence athletic performance, recovery, and adaptation. The knowledge gained can be applied by athletes, fitness enthusiasts, coaches, and health or fitness professionals who want to enhance performance outcomes using scientifically grounded nutrition strategies rather than trends or misinformation.
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