Kinematics • Study VG-2026-01
Impact Peak Decoupling via Cadence Modulation
Investigating how incremental cadence shifts (164 to 178 spm) alter tibial shock attenuation rates during prolonged sub-maximal treadmill protocols.
Empirical kinematic investigations, force-plate validation studies, and neuromuscular modeling monographs produced by the Vigorel research board.
Investigating how incremental cadence shifts (164 to 178 spm) alter tibial shock attenuation rates during prolonged sub-maximal treadmill protocols.
Analysis of median frequency shift in the gastrocnemius medialis under high-frequency stretch-shortening fatigue conditions in distance runners.
Quantifying how anterior pelvic tilt alters gluteal recruitment latency and elevates patellofemoral compressive stresses during deceleration.
Evaluating the mathematical breakpoint where kinematic symmetry degrades rapidly as blood lactate accumulation exceeds systemic clearance rate.
A 120-athlete observational study mapping propulsive force deficit thresholds that predict asymmetric overuse patterns in sprinting mechanics.
Empirical assessment of super-critical foam hysteresis and curved carbon plate geometry on ankle joint mechanical work per stride cycle.
All studies published by the Vigorel Institute are licensed under the Creative Commons Attribution 4.0 International (CC BY 4.0). Researchers wishing to replicate or conduct meta-analyses on raw kinematic CSV data may submit an academic telemetry request.