Dynamical Closure Through Embodied Geometry
The difference begins at the most basic level of explanation. Computational theories model the mind as an information processor that builds and manipulates internal representations according to algorithmic rules. On this view stable selfhood would require sufficiently sophisticated computation performed by neural circuits. The present framework rejects that premise outright. Stable first-person perspective arises instead from the continuous self-organization of a physical system whose dynamics close upon themselves through ongoing interactions between body and world. No symbols are computed. Coherence is achieved when the system settles into recurrent stabilization that satisfies the constraints of living in three-dimensional gravity.
Within this framework the FVC loop provides the concrete architecture of closure. Fascia acts as a distributed slow sensor that registers shear and deformation through its piezoelectric collagen network and Ruffini endings, thereby generating a continuous field of body-state error. The vestibular system supplies an immediate nondrifting reference to the gravitational vector. Cortical and cerebellar dynamics contribute rapid adjustments that function as physical pinning forces. The closure realized through this loop produces recurrent stabilization. That stabilization manifests in phase space as a configuration whose recognizable geometric signature is dodecahedral, because the regular dodecahedron efficiently encodes the simultaneous orientational constraints under which the organism maintains coherence, with gravity operating as one of the key projection registers. The stabilization itself occurs through low-energy recursive solutions at the golden-ratio multiple 2φ.
Because coherence is geometric and dynamical rather than representational, the character of dysregulation changes as well. What appears as chronic pain, disorientation, or loss of presence reflects loss of phase lock or binding that disrupts the conditions for recurrent closure: fascial adhesions that distort error-signal timing, decoupling of vestibular reference, or collapse of oscillatory coherence across scales. There is no corrupted inner model to debug. Healing therefore consists in restoring the physical conditions that allow closure to re-establish its recurrent stabilization. When those conditions return, the dodecahedral signature reappears as the geometric trace of successful closure. Interventions that release tissue tension, reestablish gravitational anchoring, or support oscillatory coherence enable the system to rediscover its own solution. This account generates clear empirical predictions for multi-modal recordings of timing asymmetry, thermal signatures of fascial activity, and phase relationships in EEG and MEG while remaining entirely within the domain of physics and geometry.