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Оглавление - Tensegrity Axis: Biomechanical Skeleton Derotation
An Engineering Method for Pelvic Foundation Realignment
- INTRODUCTION. An Engineering Analysis of Biomechanical Compensations
- 54 Years Trapped by Hidden Compensations
- The Impasse of the WHO Assembly-Line Approach
- Anatomical Classification: Four Types of Scoliosis Based on the Root Cause
- Biomechanic Rationale for the Sample: The 1% Precedent
- Scope of Research and Exclusion Criteria
- The Application Logic of the Tensegrity Axis Method
- Screening Test for Self-Diagnosis
- CHAPTER 1. Camouflage Biomechanics and the «False Performance Syndrome»
- CHAPTER 2. Biomechanical Modeling of Axial Loads: Theoretical Principles of Tensegrity-Based Kinematic Chain Conversion
- The Spine as a Multi-Link Kinematic Chain
- Local Stresses: Eccentric Compression and Transverse Shear
- Biomechanics of Destruction: Why the Intervertebral Disc Fails Under Axial Tilt
- Trigonometric Correlation Between Global Alignment and Derotation
- Applied Markers of Derotation for Self-Control
- Wolff’s Law and the Self-Oscillatory Dynamics of Counter-Interference Wave Fronts
- CHAPTER 3. The Concept of Tensegrity and the Paradox of Compensations
- Newtonian Biomechanics vs. Biotensegrity: From Flat Levers to Volumetric Tension
- Anatomical Inspection of a Systemic Error Through the Prism of Tensegrity
- Mathematical Algorithm for Displacement Translation into Bézier Curves Based on Trigonometric Step and Arcsine Geometry
- Methodological verification error of the leading arc: why the Cobb angle does not determine the deformation vector
- Limitations of the Cobb Method in Modeling Force Vectors
- Theoretical Substantiation of Rigid Base (Pelvis) Connection and Reference Points
- Biomechanics of Decompensation: Global Construction Tilt vs Local Inflow
- The Classical Strength Approach and the Law of Conservation of Deformation
- The Principle of Rigid Geometric Isolation: The Static Protocol
- Mirror Measurement Geometry: The Mathematics of Home Landmarks (Method of Variational Optico-Specular Anthropometry)
- CHAPTER4. Forced Neuromodulation and the Chronology of Realignment
- Hacking Proprioceptive Blindness and Joint Rebooting
- Fundamental Principle of the Tensegrity Axis Method and Its Kinematic Model
- Empirical Verification and the Adaptive Crisis: Three Tactile Stages
- Dynamic Integration of Axes into the Locomotor Gait Pattern
- CONCLUSION. Digital Verification and Technological Compliance
- Epilogue: Transformation of personal experience into technology
- Appendix A. Mathematical Modeling and Verification of Structural Changes in the Body Axis (2024–2026)
- Linear Shear Normalization and Two-Link Model Verification
- Biomechanical Mechanism of Segmental Exit from the Deformation Arc
- Digital Planimetry Atlas for Appendix A (Graphical Basis)