Abstract This paper proposes a comparative theoretical analysis of several major contemporary frameworks used to interpret human posture, movement, stability, and musculoskeletal organization. The central argument is not that existing models are incorrect, but that many remain structurally incomplete because they insufficiently distinguish between compensatory stabilization and relatively reliable skeletal load conduction under gravity. Contemporary approaches including postural alignment models, motor control theories, fascial continuity frameworks, tensegrity models, anticipatory stabilization paradigms, and movement optimization systems each describe important dimensions of human organization. However, many primarily analyze how the organism stabilizes itself rather than how gravitational load is structurally distributed throughout the body. Human Restoration Theory (HRT) proposes that continuous skeletal load conduction constitutes a distinct organizational variable that may precede posture, movement appearance, muscular activation patterns, and compensatory stabilization strategies. Within this framework, posture is interpreted as a secondary consequence of load organization rather than the primary determinant of function. Similarly, chronic muscular holding is interpreted not merely as local overactivity or faulty movement behavior, but as an adaptive organizational response emerging under conditions of unreliable structural load transfer. The paper therefore proposes that many contemporary frameworks may partially describe compensatory organization without sufficiently isolating the underlying conditions governing load-bearing reliability under gravity.
Israel Don (2026) studied this question.