Precision Movement Assessment & Care
Clinical-grade biomechanical testing meets personalized intervention protocols for optimal movement health outcomes
45-minute comprehensive evaluation
No fasting or preparation required
Comfortable, private environment
Results available within 24 hours
Comprehensive Biomechanical Analysis
Four integrated solutions working together to optimize your movement health
Arrival & Intake
When you arrive at our facility, you'll complete a brief health questionnaire and meet with your physical therapist to discuss your goals and any concerns.
Duration: 5 minutes
What to Expect:
Tight-fitting clothing recommended
Brief medical history review
Goal setting and expectation alignment
3D Gait Analysis
Walk on the treadmill while infrared cameras capture every detail of your gait in three dimensions, creating a complete picture of your gait patterns.
Duration: 20 minutes
What we measure:
Spatial Gait Metrics
Temporal Gait Metrics
Joint Kinematics
Force Plate Testing
Step onto our advanced force plates to measure ground reaction forces, weight distribution, and push-off power during various movements and functional tasks.
Duration: 10 minutes
What we measure:
Countermovement Jump
Sit-to-stand
Standing Heel Raise
Balance Plate Testing
Stand on our dynamic balance plate while we assess your postural sway, center of pressure, and stability under various challenging conditions.
Duration: 10 minutes
What we measure:
Postural Sway
Weight Distribution
mCTSIB
Limits of Stability
MovIQ Dashboard
Your Movement Data
Beautifully Visualized
See your progress unfold through our dashboard that transforms complex biomechanical data into clear, actionable insights.
Track improvements in your gait speed, monitor COP displacement, and celebrate milestone achievements on your journey to better movement health.
85%
Members see improvement in as little as 12 weeks
92%
Members report feeling more confident and stable during everyday activities
Revolutionary Fall Prevention Approach
Moving beyond reactive, generic fall prevention programs to predictive, personalized interventions
Traditional Healthcare Programs
Assessment
Subjective, Patient Reports
Intervention
Generic Exercise Programs
Outcome
Variable, Unable to track progress
MovIQ Health
Assessment
Clinical-grade Biomechanical Analysis
Intervention
Personalized Exercise Protocols
Outcome
Predictive, Preventive Improvement
Technical Specifications
Each technology captures different aspects of movement, together providing a comprehensive picture of your physical health.
3D Gait Capture
3 high-speed infrared cameras track 21 reflective markers to create a precise 3D model of your movement patterns at 100 frames per second.
Millisecond Precision
Symmetry Analysis
Compensation Detection
Force Plate
A high precision dual force plates with sample rate of 960 Hz and load capacity up to 1,000kg per plate, designed for performance, rehab, and sports science.
Measure force, power, impulse output
Highly sensitive
Fast and Repeatable
Balance Plate
A clinically validated and technology-based solution designed to measure, monitor, and analyze a person’s postural control and stability.
Fall Risk Assessment
Postural Sway
Center of Pressure Displacement
3D Gait Capture
Spatio-Temporal Analysis
Spatiotemporal analysis breaks down how you move through time and space, revealing subtle timing and symmetry changes that reflect how efficiently your brain and body are coordinating gait. These patterns often shift before any symptoms are felt, making them powerful early indicators of decline. By capturing this level of detail, we can identify risk, track progress, and personalize interventions with far greater precision than traditional movement screening.
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Gait speed is the rate at which you walk and is widely recognized as a powerful indicator of overall health, functional ability, and longevity.
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Cadence is the number of steps you take per minute and reflects the rhythm and pace of your walking pattern.
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Double stance support is the percentage of your walking cycle when both feet are on the ground, and higher values can indicate reduced balance or walking confidence.
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Step width is the distance between your feet from side to side while walking, and wider steps can signal balance issues or instability.
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Stride length is the distance covered in one full gait cycle (from heel strike of one foot to the next heel strike of the same foot), and shorter stride length can indicate decreased strength, mobility, or neurological control.
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Ground contact time is the amount of time your foot stays in contact with the ground during each step, and longer contact times can indicate reduced power, stability, or walking efficiency.
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Duty factor is the percentage of the gait cycle that your foot is in contact with the ground, and higher values may indicate slower, more cautious walking often associated with decreased strength or balance.
3D Gait Capture
Joint Kinematics
Joint kinematics tell us how well your body transfers force, absorbs impact, and maintains alignment during gait. Subtle limitations in joint mobility or coordination can lead to compensation patterns that increase stress on muscles and ligaments, raising the risk of injury over time. By analyzing joint movement in real time, we can identify dysfunctions before they become painful, helping you move better, longer, and with less risk.
Initial Contact
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Trunk rotation at initial contact refers to the natural twisting of the torso when your foot first strikes the ground, helping to maintain balance, forward momentum, and efficient energy transfer during walking.
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Pelvic rotation at initial contact refers to the forward rotation of the pelvis on the side of the stepping leg, which aids in stride length, shock absorption, and smooth progression during walking.
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Hip flexion at initial contact refers to the angle at which the thigh lifts toward the torso when the foot first strikes the ground, allowing for proper step length and positioning for shock absorption.
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Knee flexion at initial contact refers to the slight bend in the knee when the foot strikes the ground, which helps absorb impact and prepare the leg for a stable stance phase.
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Ankle dorsiflexion at initial contact refers to the upward angle of the foot toward the shin when the heel first touches the ground, allowing for proper foot placement and smooth weight acceptance during walking
Midstance
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Pelvic drop at midstance refers to the slight lowering of the pelvis on the side opposite the stance leg, which helps with shock absorption and smooth weight transfer during walking.
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Hip adduction at midstance refers to the inward movement of the thigh toward the body's midline as the stance leg supports the body's weight, helping maintain balance and alignment during walking.
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Hip internal rotation at midstance refers to the inward turning of the thigh bone as the body moves over the stance leg, contributing to proper alignment, stability, and efficient forward progression during walking.
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Knee flexion at midstance refers to the slight bend in the knee as the body’s weight is fully supported on one leg, aiding in shock absorption and smooth forward movement during walking.
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Ankle pronation at midstance refers to the natural inward rolling of the foot as it flattens to absorb shock and adapt to the ground while supporting the body’s weight during walking.
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Foot rotation at midstance refers to the slight turning of the foot, typically outward, to help align the lower limb, maintain balance, and support efficient forward movement during walking.
Terminal Stance
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Pelvic tilt at terminal stance refers to the slight anterior (forward) angling of the pelvis as the trailing leg prepares to push off, influencing posture, hip extension, and overall walking efficiency.
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Hip extension at terminal stance refers to the backward movement of the thigh as the leg pushes off the ground, generating forward propulsion and contributing to stride length during walking.
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Ankle dorsiflexion at terminal stance refers to the upward flexing of the ankle as the heel lifts and the body moves forward over the foot, storing energy for an efficient push-off.
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Ankle pronation at terminal stance refers to the continued inward roll of the foot just before push-off, which helps with weight transfer and stability as the body prepares to propel forward.
Swing Phase
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Foot clearance during the swing phase refers to the vertical distance between the foot and the ground as the leg swings forward, ensuring the foot doesn’t catch and allowing for safe, efficient walking.
Force Plate Analysis
As we age, our body loses muscle power faster than strength, which makes it harder to react quickly and prevent falls. Force plate analysis measures how fast and effectively your body produces force, something standard fitness tests cannot capture. It reveals early signs of decline and helps guide targeted strategies to rebuild strength.
Countermovement Jump
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Jump height measures how high you can propel your body off the ground, reflecting your lower-body power and explosiveness.
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Peak velocity measures the maximum speed your body reaches as you push off the ground, indicating how quickly you can generate force.
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Time to peak force (s) during a countermovement jump measures how long it takes you to reach your maximum force output, reflecting your ability to produce strength quickly and efficiently.
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Relative peak power (W/kg) during a countermovement jump measures the maximum power you generate in relation to your body weight, indicating how explosively and efficiently you can move.
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Relative peak force (N/kg) measures the maximum force you generate during movement, adjusted for your body weight, showing how strong you are relative to your size.
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Relative net impulse (N·s/kg) measures the total force you apply over time during a movement, adjusted for body weight, and reflects your ability to generate and sustain force efficiently.
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Relative rate of force production (N/s/kg) measures how quickly you can generate force relative to your body weight, indicating your explosive strength and neuromuscular efficiency.
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Force Symmetry Index (%) during a countermovement jump measures the balance of force output between your left and right legs, indicating whether one side is compensating or weaker than the other.
Sit-to-Stand
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Relative peak force measures how much force you generate compared to your body weight, showing how effectively you can produce strength in everyday movements.
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Time to peak force measures how quickly you reach your maximum force output, reflecting your speed of strength generation in functional movements.
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Relative rate of force production measures how quickly you can generate force relative to your body weight, indicating your ability to rise and move with power and efficiency.
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Force Symmetry Index measures the balance of force between your left and right legs, helping identify asymmetries that may affect stability, strength, or risk of injury.
Standing Heel Raise
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Relative peak force measures how much force your calf muscles generate compared to your body weight, reflecting lower leg strength and functional capacity in push-off and balance.
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Force Symmetry Index measures the balance of force between your left and right legs, helping identify strength imbalances in the calves that may affect gait, push-off power, or injury risk.
Balance Plate Analysis
Balance is one of the most overlooked yet critical aspects of healthy aging. Subtle losses in balance control often begin long before you feel unsteady and are among the strongest predictors of falls. Because it relies on the integration of your brain, muscles, joints, and inner ear, even small disruptions can signal early dysfunction. Balance plate analysis detects these changes with precision, providing insight into your real-world stability far beyond what a basic balance test can show.
Postural Sway Test
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Postural sway measures how much your body naturally shifts while standing still, indicating the stability and control of your balance system.
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Postural sway norm shows how your balance performance compares to age-based norms, helping identify whether your sway is within a healthy range or indicates increased fall risk.
Weight Distribution Test
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Left/Right Weight Distribution measures how evenly your body weight is distributed between your left and right sides while standing, helping detect imbalances that may indicate injury, compensation, or asymmetrical movement patterns.
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Anterior/Posterior Weight Distribution measures how your weight is balanced between the front and back of your feet while standing, revealing shifts that may affect posture, stability, and movement control.
Modified Clinical Test of Sensory Integration on Balance (mCTSIB)
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Eyes Open, Firm Surface measures how much your body sways while standing still on a stable surface with your eyes open, providing a baseline for postural control when all sensory systems are available.
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Eyes Closed, Firm Surface measures how much your body sways while standing on a stable surface without visual input, assessing how well you rely on your inner ear (vestibular system) and sense of body position (proprioception) to maintain balance.
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Eyes Open, Foam Surface measures how much your body sways while standing on an unstable, foam surface with your eyes open, testing your ability to maintain balance when surface feedback is reduced and you must rely more on vision and your vestibular system.
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Eyes Closed, Foam Surface (cm) measures how much your body sways while standing on an unstable surface without visual input, challenging your vestibular system to maintain balance when both vision and reliable surface feedback are removed.
Limits of Stability
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Total Area (cm²) in the Limits of Stability test measures the full range within which you can intentionally shift your center of pressure without losing balance, reflecting your overall dynamic stability and control.
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