Sample Report — This is what every Full Scan produces
Get your own scanTrue Form X
male · 24y · 178cm · 74kg · athletic performance
April 5, 2026
Overall Rating
Alex Rivera
soccer
Your Archetype
The Aerobic Engine
This athlete possesses a highly efficient cardiovascular system and exceptional bilateral symmetry, allowing for sustained, injury-free work output over long durations. However, a sluggish stretch-shortening cycle means they currently lack the explosive fast-twitch power needed for elite multidirectional agility.
Athletic Age
26
2yr older than actual
Elite cardiovascular base and landing symmetry, hindered by sluggish reactive strength and incomplete baseline data.
Compared to typical 24-year-old advanced soccer midfielders, Alex possesses an elite aerobic engine and excellent bilateral control, which are foundational for enduring 90-minute matches and minimizing injury risk. However, his reactive power and first-step quickness currently lag behind his peers, potentially restricting his explosiveness and ability to win aerial duels. Completing the missing baseline assessments is critical to accurately target his deficits and optimize his plyometric and strength programming.
Badges Earned
Your key metrics vs. reference ranges for active adults your age and sex.
Vertical Jump
ref: 35–60 cm
Resting Heart Rate
ref: 50–80 bpm
Est. VO2max
ref: 40–55 ml/kg/min
Power-to-Weight
ref: 0.4–0.7 cm/kg
Peak Power (Sayers)
ref: 3000–5000 W
Population Percentiles
Welcome to your first baseline performance scan, Alex. As a twenty-four-year-old midfielder with six years of consistent, highly active training under your belt, you have already built a formidable foundation for athletic success. My role as your performance consultant is to look beyond the surface of your daily workouts and analyze the specific biomechanical and physiological markers that dictate how you move, react, and sustain effort on the pitch. Soccer, particularly in the midfield, is a game of relentless transitions. You need the aerobic capacity to cover massive distances over ninety minutes, but you also need the explosive, reactive power to win the first step, dominate aerial duels, and break lines with sudden bursts of speed. Right now, your scan reveals a tale of two athletes: one with an elite, highly efficient cardiovascular engine, and another whose lower-body reactive power is sluggish and struggling to translate force quickly. Furthermore, we have some significant gaps in your baseline data regarding posture, mobility, and absolute strength, which we need to address to give you a truly holistic biomechanical profile. Let us start with your greatest asset right now, which is your cardiovascular efficiency. Your resting heart rate clocked in at an exceptional 58 beats per minute, paired with a calm respiratory rate of 13 breaths per minute. For a twenty-four-year-old male, dropping below the 60 beats per minute threshold is a clear indicator of parasympathetic nervous system dominance and a highly developed stroke volume. In simple terms, your heart pumps more blood with less effort, allowing you to sustain high work rates and recover rapidly between the repeated high-intensity sprints required in the midfield. This robust aerobic engine is the bedrock of your performance. It means fatigue will not be the factor that beats you in the eighty-fifth minute of a match. However, I must note that this measurement was taken over a brief fifteen-second window. While the ninety-two percent confidence level is solid, future scans must be extended to at least sixty seconds so we can accurately measure your heart rate variability. Heart rate variability is the gold standard for tracking central nervous system recovery, and having that data will allow us to know exactly when to push your training intensity and when to pull back. Looking at your foundational anthropometrics, you are currently sitting at 74 kilograms with a height of 178 centimeters, giving you a healthy Body Mass Index of 23.4. This is a highly optimal frame for a soccer player, providing a solid balance of mass for physical duels without carrying excess weight that would hinder your agility or aerobic endurance. However, because the detailed body composition scan was not completed, we are missing critical data regarding your specific lean muscle mass and body fat percentages. Elite midfielders typically operate within an eight to twelve percent body fat range to maximize their power-to-weight ratio. Without knowing your exact fat-free mass, it is impossible to evaluate your true metabolic rate or identify potential lower-body muscle imbalances. Given your six years of training, I suspect your lean mass is well-developed, but we absolutely need to complete this scan in the future to establish precise, individualized strength targets. The most critical revelation from this baseline scan, and the primary focus of your upcoming training block, lies in your power and reactive strength metrics. Your peak jump height of 48.2 centimeters and peak velocity of 3.07 meters per second indicate moderate lower-body explosive power. For an advanced twenty-four-year-old midfielder, these numbers fall slightly below the optimal threshold. But the real issue is not just how high you jump; it is how long it takes you to generate that force. Your time to takeoff was heavily prolonged at 850 milliseconds, resulting in a suboptimal Reactive Strength Index of 1.65. This indicates a sluggish stretch-shortening cycle. When you plant your foot to change direction or jump, your muscles and tendons undergo an eccentric lengthening phase before contracting concentrically to propel you. The time between these two phases is called the amortization phase. Right now, your amortization phase is too long. You are bleeding kinetic energy into the ground rather than snapping it back elastically. On the pitch, this delayed force production manifests as a lack of first-step quickness, reduced tackling explosiveness, and a disadvantage when challenging for headers. You have the engine to get to the ball, but you currently lack the reactive spark to win it decisively. Fortunately, while your takeoff mechanics need significant refinement, your landing mechanics are elite. You demonstrated an average landing symmetry of over 96 percent across all your jump attempts. This is an outstanding metric that highlights excellent bilateral neuromuscular control. It tells me that your brain and body are highly coordinated when absorbing force, which drastically lowers your risk for lower-extremity injuries like ACL tears or ankle sprains. You have the structural stability to handle high-impact landings safely; we just need to train your nervous system and tendons to act more like stiff springs when you strike the ground. The sluggish stretch-shortening cycle we identified is a moderate risk flag, as poor eccentric-to-concentric force transfer can increase your susceptibility to muscle strains during explosive multidirectional movements, but your elite landing control provides a very safe foundation for us to build upon. To truly unlock your potential, however, we must address the significant gaps in your baseline data. The absence of posture, mobility, strength, and neuromuscular assessments leaves us blind to potential hidden structural asymmetries or biomechanical restrictions. For example, elite midfielders require greater than 35 degrees of weight-bearing ankle dorsiflexion and highly symmetrical hip internal rotation to support rapid, multi-directional changes. Without this mobility data, we cannot identify restrictions that might be secretly limiting your agility. Similarly, without absolute strength metrics like a one-rep max squat or a hamstring-to-quadriceps ratio, we cannot evaluate your foundational force production. For a 74-kilogram player, I would expect to see a barbell back squat of at least 110 to 148 kilograms. Foundational strength directly underpins sprint speed, and without knowing your baseline, we are guessing at your ceiling. I strongly urge you to complete these missing modules immediately so we can proactively mitigate injury risks and tailor your programming with absolute precision. Based on the data we do have, I have designed a four-week training program specifically targeted at Reactive Power and Rate of Force Development. We are going to transform your sluggish stretch-shortening cycle into a highly responsive, explosive spring. Day one and day four are your primary lower-body power days, heavily featuring ankle pogo jumps, low box drop jumps, and single-leg broad jumps. These plyometric movements are designed to minimize your ground contact time and drastically improve your tendon stiffness, directly attacking that prolonged 850-millisecond takeoff time. We are pairing these with heavy trap bar deadlifts and barbell back squats to raise your absolute strength ceiling. Day two focuses on upper body strength and trunk control, utilizing rotational medicine ball throws and Copenhagen planks to ensure your core can efficiently transfer force between your lower and upper body during tackles and changes of direction. Day three is dedicated to active recovery and mobility, proactively addressing the hip and ankle ranges of motion that are so vital for soccer. Finally, day five translates all this gym-based power directly to the pitch, utilizing resisted sprints and multi-directional agility drills to ensure your new reactive strength shows up during a match. Alex, you have done an incredible job building a world-class aerobic engine and establishing flawless landing mechanics over your six years of training. You have the discipline and the physical foundation to reach the elite tier of athletic performance. Over the next four weeks, if you commit to this plyometric and rate-of-force development program, we are going to see a dramatic shift in your explosiveness. We are going to cut down that amortization phase, spike your Reactive Strength Index, and give you the lethal first step that will make you a nightmare for opposing midfielders. Complete those missing baseline assessments, attack this training block with intent, and let us see exactly how powerful you can become by your rescan in a month.
Reactive Strength Index (RSI) is suboptimal at 1.65, combined with a heavily prolonged time to takeoff of 850ms during the jump assessment.
Moderate peak jump height of 48.2cm and peak velocity of 3.07m/s, indicating a struggle to rapidly generate concentric force despite excellent landing symmetry (96%).
Alex's resting heart rate of 58 bpm and respiratory rate of 13 bpm reflect a highly efficient cardiovascular system typical of a well-conditioned soccer midfielder. For a 24-year-old male with 6 years of consistent training, a resting heart rate below 60 bpm is an excellent indicator of parasympathetic dominance and high stroke volume, sitting well below the general population average of 60 to 100 bpm. This strong aerobic base is critical for his athletic performance goals, as midfielders require exceptional endurance to sustain high work rates and recover rapidly between repeated high-intensity sprints over a 90-minute match. While the 92 percent confidence level is solid, the exceptionally short 15-second measurement duration limits our ability to assess heart rate variability and true resting baseline stability. Overall, these baseline metrics show exceptional cardiovascular readiness, but future resting scans should be extended to at least 60 seconds to ensure comprehensive autonomic nervous system profiling.
58
Resting BPM
Pulse Waveform
51.6
Est. VO₂max (ml/kg/min)
Based on resting HR of 58 bpm
An estimated VO2max of 51.6 ml/kg/min indicates an excellent aerobic capacity, which is essential for a soccer midfielder who must cover extensive ground over a 90-minute match. Combined with a resting heart rate of 58 bpm, this reflects a highly efficient cardiovascular system capable of sustaining high work rates and recovering rapidly between intense sprints.
Alex's peak jump height of 48.2cm and peak velocity of 3.07m/s indicate moderate lower-body power that falls slightly below the optimal threshold for an advanced 24-year-old male soccer midfielder. A prolonged time to takeoff of 850ms combined with a suboptimal Reactive Strength Index (RSI) of 1.65 suggests a sluggish stretch-shortening cycle, meaning he struggles to rapidly translate eccentric loading into explosive concentric force. In a match context, this delayed force production will hinder his first-step quickness, tackling explosiveness, and ability to win aerial duels in the midfield. On a positive note, his landing symmetry is exceptional, averaging over 96% across all attempts, which highlights excellent bilateral neuromuscular control and a low risk for lower-extremity injuries. To optimize his athletic performance, training should shift focus toward plyometrics, drop jumps, and ballistic movements to decrease his amortization phase and boost his reactive strength.
Best Jump
48.2cm
Peak Velocity
3.07m/s
RSI
1.65
Landing Symmetry
96%
Power/Weight
0.65
cm/kg
Peak Power
4223
watts (Sayers)
Elasticity
5.07
RSI × velocity
Even force-velocity profile. Optimize both for maximum output.
The most critical finding is the prolonged time to takeoff (850ms) and suboptimal RSI (1.65), indicating a sluggish stretch-shortening cycle that limits first-step quickness despite a solid peak power of 4223W.
An excellent VO2max of 51.6 ml/kg/min and a resting heart rate of 58 bpm confirm elite cardiovascular conditioning perfectly suited for the endurance demands of a midfield role.
A minimal asymmetry index of 4/100 highlights outstanding landing mechanics and bilateral control, providing a safe foundation for introducing high-intensity plyometrics.
Missing baseline data in strength, posture, mobility, and neuromuscular profiling creates significant blind spots in assessing his true power-to-weight ratio and overall injury resilience.
A recovery readiness score of 73/100 indicates an adequate state of systemic recovery, though extending future resting heart rate scans beyond 15 seconds will provide a more accurate picture of autonomic readiness.
Because the neuromuscular assessment was incomplete, a specific fatigue index and velocity drop percentage are unavailable. Completing a full neuromuscular battery is necessary to accurately gauge central nervous system fatigue and repeated sprint sustainability.
100
/100
With a Movement Complexity score of 100/100, Alex demonstrates highly coordinated global movement patterns during dynamic tasks like jumping. However, because static posture and joint-specific mobility assessments were skipped, we cannot rule out underlying kinetic chain compensations or restrictions that might hinder his multidirectional agility.
4
Asymmetry Index
An Asymmetry Index of 4/100 with a landing symmetry of 96 percent on the left and 100 percent on the right demonstrates exceptional bilateral neuromuscular control. This minimal 4 percent variance indicates balanced force absorption mechanics, significantly reducing the risk of lower-extremity injuries during rapid decelerations and changes of direction.
89
/100
Based on 6 years of training
A Training Age Efficiency score of 89/100 shows that Alex has highly optimized his 6 years of consistent training, successfully building a robust cardiovascular base and excellent movement coordination. However, to fully capitalize on this training age, he must address the missing strength and mobility data to translate this efficiency into elite explosive power.
50
/100 risk score
Low risk — your movement quality supports safe progressive overload.
Sluggish stretch-shortening cycle (prolonged time to takeoff of 850ms and low RSI of 1.65) indicates poor eccentric-to-concentric force transfer, which can reduce first-step quickness and increase susceptibility to muscle strains during explosive multidirectional movements.
Incorporate fast-SSC plyometrics, drop jumps, and ballistic exercises to decrease the amortization phase and improve reactive strength.
Potential hidden structural asymmetries or biomechanical restrictions due to incomplete mobility, posture, and strength baseline data, leaving the athlete vulnerable to compensatory non-contact injuries.
Complete the missing mobility, posture, and strength assessments to identify any joint restrictions or bilateral deficits.
How prepared your profile is for each sport, based on all scan data.
Current level vs. realistic ceiling with 12-16 weeks of dedicated training.
Ankle Pogo Jumps
3 sets × 15-20
Keep knees relatively stiff, bounce from the ankles. Focus on minimal ground contact time to build tendon stiffness.
Box Jumps
4 sets × 4-5
Focus on explosive hip extension. Step down, do not jump down, to manage eccentric load on tendons.
Trap Bar Deadlift
4 sets × 5
Use 70-80% 1RM. Controlled eccentric, maximal explosive intent on the concentric phase to drive RFD.
Bulgarian Split Squats
3 sets × 8/leg
Assess bilateral symmetry while building unilateral strength. Keep torso slightly forward for glute engagement.
Nordic Hamstring Curls
3 sets × 5-6
Focus on the slow eccentric phase. Crucial for hamstring injury prevention during high-speed sprinting.
Medicine Ball Rotational Throws
3 sets × 6/side
Maximal velocity against a wall. Develops rotational power essential for soccer.
Dumbbell Bench Press
3 sets × 8-10
Control the descent, press explosively. Maintain core tension.
Weighted Pull-ups
3 sets × 6-8
Full range of motion. Builds upper back strength for shielding the ball.
Copenhagen Planks
3 sets × 20-30s/side
Adductor strength and stability to prevent groin strains.
Pallof Press
3 sets × 10/side
Anti-rotation core stability. Brace trunk forcefully.
90/90 Hip Rotations
2 sets × 10/side
Assess and improve internal/external hip rotation. Hold end ranges for 3 seconds.
Knee-to-Wall Ankle Mobilizations
2 sets × 12/side
Drive knee over toes while keeping heel planted. Aim for >35 degrees of dorsiflexion.
Thoracic Spine Windmills
2 sets × 8/side
Improve upper body rotational mobility and posture.
Stationary Bike
1 sets × 20 mins
Zone 2 aerobic flush (110-130 bpm). Promotes recovery without adding neuromuscular fatigue.
Low Box Drop Jumps
4 sets × 4
Use a 15-30cm box. Step off and rebound immediately. Cue: 'Pretend the floor is lava' to reduce 850ms takeoff time.
Kettlebell Swings
4 sets × 10-12
Snap the hips aggressively. Focus on horizontal force production and RFD.
Barbell Back Squat
4 sets × 4-6
Establish baseline strength. Work up to a heavy but fast set. Target 1.5-2.0x bodyweight eventually.
Single-Leg Broad Jumps
3 sets × 4/leg
Stick the landing for 2 seconds to ensure neuromuscular control and kinetic chain stability.
Heavy Slow Calf Raises
3 sets × 10
3 seconds up, 3 seconds down. Increases Achilles tendon stiffness and resilience.
A-Skips & B-Skips
3 sets × 15m each
Focus on stiff ankle contacts and aggressive knee drive for sprint mechanics.
5-10-5 Pro Agility Drill
4 sets × 1
Max effort change of direction. Stay low into the cuts and explode out.
Resisted Sprints (Sled or Band)
5 sets × 15m
Use 10-15% bodyweight resistance. Focus on aggressive forward lean and first-step quickness.
Multi-directional Lunges
3 sets × 6/leg
Forward, lateral, and reverse. Exposes and corrects hidden kinetic chain asymmetries.
Assessment Completion
Complete missing mobility, posture, strength, and neuro baseline scans.
Once (prior to next phase) — Target: 100% data capture to establish true baselines and identify hidden asymmetries.
Stretch-Shortening Cycle (SSC)
Execute low-amplitude, fast-contact plyometrics (Pogo Jumps, Drop Jumps).
2x/week — Target: Reduce time to takeoff to <500ms and increase RSI to >2.0.
Rate of Force Development (RFD)
Perform ballistic exercises (Trap Bar Jumps, KB Swings) with maximal concentric intent.
2x/week — Target: Increase peak jump velocity to >3.2m/s and peak jump height to >52cm.
Vitals Monitoring
Extend resting vitals scan duration to capture HRV and autonomic stability.
Daily upon waking — Target: Minimum 60-second scan duration.
midfielder
Sport-Specific Training
Extensive Pogo Jumps
4 sets × 15-20
Increases lower-limb stiffness and reduces the amortization phase, directly improving RSI and first-step quickness.
A-Skips
3 sets × 20m
Corrects over-striding by reinforcing proper front-side mechanics and promoting foot strike directly under the center of mass.
Rear-Foot Elevated Split Squat Stretch with Glute Activation
3 sets × 60s per side
Improves hip extension mobility to allow for a larger backswing during instep kicks and reduces hip flexor strain risk.
Low Box Drop Jumps
3 sets × 5-8
Enhances eccentric-to-concentric force transfer to correct the sluggish stretch-shortening cycle identified in the power scan.
Heavy Sled Pushes
4 sets × 15m
Develops rate of force development (RFD) and acceleration mechanics without allowing the athlete to over-stride.
Kettlebell Swings
4 sets × 8-10
Builds explosive hip extension power, translating to stronger tackling and increased velocity on long passes and shots.
Depth Jumps to Hurdle Hop
4 sets × 4-6
Maximizes stretch-shortening cycle efficiency and vertical power to improve performance in midfield aerial duels.
Medicine Ball Rotational Throws
3 sets × 8 per side
Enhances core rotational power to effectively transfer energy from the newly acquired hip extension into the instep kick.
Each movement was captured via camera and scored using bilateral 3D joint-angle tracking. Faults are detected by comparing your angles against ideal ranges for each phase of the movement.
2
Movements
2
Total faults
0
Major faults
Strongest
Soccer Instep Kick
76/100
Focus area
Soccer Sprint Form
74/100
90 frames · soccer
76
Good
Form Issues (1)
Limited hip extension in backswing
vs Elite Athletes
75 frames · soccer
74
Needs work
Form Issues (1)
Slight over-striding
vs Elite Athletes
Compared to active athletes in your sport at your level.
Significant gap to elite (17cm)
Calorie summary
1738
BMR
2997
TDEE
2997
Target
Macros
Activity level
×1.73
AI narrative
Welcome to your first baseline nutrition plan, Alex. As a 24-year-old soccer midfielder, your position demands exceptional endurance, repeated sprint ability, and high cognitive focus. To fuel this level of output, we start with your basal metabolic rate (BMR) of 1738 kcal/day. Because you are very active and training 5 days a week, we apply an activity multiplier of 1.725, bringing your Total Daily Energy Expenditure (TDEE) to 2997 kcal/day. Since your primary goal is athletic performance rather than weight manipulation, your target calories are set to a maintenance level of exactly 2997 kcal/day (+0 kcal vs TDEE). This ensures you have the precise energy required to dominate the pitch without feeling sluggish or losing lean mass.
To optimize your performance, your macronutrients are heavily skewed toward fueling high-intensity efforts. Carbohydrates are your body's preferred energy source, so we have allocated a substantial 464.4 g/day (62% of calories) to keep your muscle glycogen stores fully loaded. Protein is set at 118.4 g/day (15.8% of calories), which is more than enough to support muscle repair and recovery after heavy matches or training sessions. Finally, your fat intake is targeted at 74 g/day (22.2% of calories) to support joint health, hormone production, and sustained baseline energy. You will hit these targets by focusing on complex carbohydrates like oats and pasta, lean proteins like chicken and salmon, and healthy fats from walnuts, avocados, and olive oil.
Nutrient timing and hydration will be the final pillars of your success. Aim to consume easily digestible carbohydrates 1-2 hours pre-workout to top off energy levels, and follow up your sessions with a blend of protein and fast-acting carbs to kickstart recovery. Hydration is non-negotiable; aim for at least 3-4 liters of water daily, adding an electrolyte supplement or isotonic sports drink during intense training to replace sodium lost through sweat. A high-quality whey protein isolate can also be a convenient post-training supplement to help you easily hit your protein targets while keeping digestion light.
Suggested daily diet
Recommended rescan in
4 weeks
Target: May 3, 2026