Training & Athlete Profile
Real-Time Input
Preset Training Protocol
75 kg
16:00 (4:00 PM)
Macronutrient Intake
2,600 kcal
165 g (2.20 g/kg)
325 g (4.33 g/kg)
70 g (0.93 g/kg)
Protein 25%
Carbs 50%
Fats 25%
Key Micronutrients & Antioxidants
Iron (RDA 18mg)
18 mg
Vitamin D (2000 IU)
2000 IU
Zinc (RDA 15mg)
15 mg
Antioxidants
450 mg
⚡
Optimal Fueling & Anabolic Environment
Carbohydrate glycogen reserves fully cover training expenditure while leucine threshold triggers 4 complete MPS pulses.
Energy Balance
+140 kcal
TDEE: 2,460 kcal
Full Recovery Time
14.5 hrs
Velocity: High
MPS Efficiency
96%
4 Optimal Pulses
Glycogen Saturation
92%
Zero Fatigue Dip
24-Hour Biological State Curve (00:00 - 24:00)
Interactive Multi-Phase Kinetics
Muscle Glycogen Reserve (%)
Muscle Protein Synthesis (MPS) Spike
Recovery Readiness Velocity (%)
Workout Execution Window
Circadian Meal & Nutrient Distribution
Timed Anabolic Windows
Breakfast (08:00)
Protein: 40g
Carbs: 80g
Fats: 18g
Lunch (12:30)
Protein: 45g
Carbs: 90g
Fats: 20g
Pre/Post Workout (16:00)
Protein: 40g
Carbs: 95g
Fats: 12g
Dinner (20:30)
Protein: 40g
Carbs: 60g
Fats: 20g
Biochemical Impact & Sports Dietetics Principles
1. Glycogen Depletion & Sluggishness: High-intensity resistance and endurance exercise rely heavily on intracellular glycogen. If daily carbs fall below 3g/kg or pre-workout timing is inadequate, intra-workout ATP output drops by 20–35%, causing premature fatigue.
2. Leucine Threshold & Muscle Protein Synthesis (MPS): Approximately 30–40g of quality protein per meal (delivering ~2.5–3.0g leucine) is required to trigger mTOR phosphorylation. Spreading protein across 4 pulses optimizes 24-hour muscle remodeling.
3. Micronutrient Catalyst Role: Iron sustains myoglobin oxygenation, Vitamin D modulates skeletal muscle contractility and testosterone synthesis, and Zinc acts as a vital co-factor for protein enzymatic synthesis.