Complete Fitness, Nutrition, Ergogenic Supplements Diploma

Explore how protein and amino acids support muscle repair, growth, and metabolism; distinguish complete versus incomplete proteins and essential versus non-essential amino acids, including branched-chain amino acids.

Explore ergogenic supplements, including protein, carbohydrates, vitamins and minerals, arginine, caffeine, CLA, glutamine, and HMB, with dosage, timing, safety, and evidence-based benefits for athletes and coaches.

Calculate daily protein intake from body weight and activity, covering RDA 0.8 g/kg, athletes 1.8 g/kg, bodybuilders 2 g/kg, and a safety limit up to 2.8 g/kg.

Discover how the supplements and ergogenic industry operates, including making processes, sales techniques, and methods to tell genuine products from fake, such as proprietary blends, name changes, and science claims.

learn how to determine ingredient amounts in a proprietary blend by ranking ingredients by total milligrams and applying stepwise percentages to allocate the 1000 mg across five ingredients.

Discover whey protein types—concentrate, isolate, and hydrolysate—their making process and lactose content. Learn how digestibility and timing influence post-workout use and pricing.

Explore egg protein from egg white as a complete, lactose-free, easily digestible protein, noting limited branched-chain amino acid quality and the detailed nutrition breakdown.

Casein protein digests slowly, keeps amino acids in blood for up to seven hours, and is best taken at night; whey protein provides a fast post-workout boost.

Investigate soy protein’s amino acid profile and glutamine content, low carbs, and conflicting research on testosterone, with safe usage guidance for men and benefits for women.

Explore glutamine, a conditional essential amino acid, its roles in muscle growth, retention, recovery, immunity, and glycogen storage, plus practical dosing and safety insights from studies.

Explore HMV, a beta hydroxy beta methylbutyrate supplement, its proposed effects on strength and endurance, and dosing basics. The lecture contrasts benefits for beginners in resistance training with endurance athletes.

Arginine is a conditionally essential amino acid supporting the urea cycle and nitric oxide production, with growth hormone release. Supplements and foods provide it, but ergogenic benefits are mixed.

Boost energy and stamina with shilajit, a mineral-rich resin with fulvic acid, while supporting nutrient absorption, immune health, and antioxidant protection, with potential testosterone benefits for athletes.

Ashwagandha, an ayurvedic adaptogen, may improve endurance, VO2 max, strength, and recovery in athletes. The lecture covers forms, dosing (500–1000 mg daily), timing, heat intolerance, and drug interactions.

Explore the three energy systems—phosphocreatine, glycolytic (lactic acid), and oxidative (aerobic)—and how ATP, the currency of energy, powers every cell and sustains athlete performance.

Explore how endurance-based sports rely on the aerobic energy system and how nutrition varies for endurance-based and intermittent-based athletes, with examples such as long distance cycling, marathons, long course swimming.

Explore the three tiers of athletes—recreational, immature, and professional—based on sport, from fun fitness and social involvement to university, national, and Olympic competition, including weight lifting and aerobic disciplines.

Explore the phosphocreatine (ATP-CP) energy system, which provides energy without oxygen for about 10-15 seconds as ATP and creatine phosphate break down via kinase enzymes.

Explore the glycolytic energy system, also known as anaerobic glycolysis, which uses carbohydrates to fuel activity for 30 seconds to three minutes. Break down glycogen into glucose; lactate causes fatigue.

Explore the aerobic energy system, or oxidative energy system, which uses oxygen to produce energy from glucose, fats, and proteins for long-lasting activity, activated after two minutes.

Explains cardio zones, including aerobic and anaerobic levels, and shows how to calculate maximum heart rate with 220 minus age, highlighting zone one as 50-60% of max.

Explore cardio zones and how to calculate maximum heart rate, detailing zone two light (60–70%), three moderate (70–80%), four hard (80–90%), and zone five peak (90–100%), with caution for beginners.

Estimate calories by calculating BMR and TDEE using the Katch McArdle or Mifflin Stidger formulas, based on workout intensity, age, and weight, then apply TEF and TEA.

Calculate Bilal's BMR, TEF, and TDEE in a real-life case study by applying a 1.4 activity multiplier to estimate maintenance calories for a 65 kg gym routine.

Explore nutrition requirements for athletes by outlining macronutrients such as protein, carbohydrates, fats, and water, and describe micronutrients such as vitamins and minerals and their role in growth and repair.

Prioritize protein when designing a diet, since protein is the building block of amino acids and provides energy, and tailor intake using 0.5, 0.8, or 1 g per body pound.

Explore the role of carbohydrates and fats as essential energy sources for athletes, with calculations for grams per pound and daily fat ranges to guide diet design.

Understand water's role in athletic performance, with guidance on 250 ml to 1 liter during exercise and 1 liter per 20 kg of body weight, while avoiding drinking near meals.

Use urine color test to assess hydration: dark equals dehydration, pale yellow equals adequate hydration, white equals overhydration. Keep water for workouts under 90 minutes; longer sessions require sports drinks.

Determine tdee and goal, then apply a deficit or surplus. For weight loss use 50/30/20; for gain, 50% carbs, 30% protein, 20% fats, planning 3500 calories per kg.

Craft effective workout plans and nutrition plans to optimize fitness outcomes and guide supplement use.