Pride Unified Field Theory of Sexual Identity and Attraction (Model 212) formalizes an information-geometric extension of Model 122, redefining sexual orientation, interpersonal attraction, and masking dynamics as continuous parameter regimes of a single recursive cognitive metric space. Rejecting psychological dualism, the framework adopts Informational Monism to establish identity as the Total Fisher Information Metric, generated by the geometric coupling of stable, biological somatic-coordinate data and active, history-dependent recursive loads. Tracing worldlines through the interpersonal landscape via the Unified Evolution Law, the model tracks state progression across three primary topological regimes: Monotropic Fixed Basins (monosexual attraction), Multi-Basin Symmetric Landscapes (plurisexual fluidity), and Isotropic Flat Manifolds (asexual invariant neutrality). By incorporating the Collision Layer mechanics of the Model 201 bundle, Model 212 maps the exact thermodynamic and geometric costs of social compression, forced passing, and closeted performance. When external environmental metrics force an unnatural metric alignment that overrides the sovereign internal state, the resulting metric mismatch induces severe informational shear and localized system ruptures. The metabolic expenditure of maintaining an artificial social metric is quantified as the physical accumulation rate of informational heat. If this residual entropy exceeds the system’s total stabilization threshold, it triggers an emergency Topology Reduction to prevent total informational divergence, manifesting as systemic burnout, dissociation, or acute social withdrawal. Furthermore, the model applies the Capacity Decay Law to prove that repeated exposure to systemic discrimination or forced conversion tactics leaves permanent geometric scars in the form of Residual Strain. This structural erosion exponentially degrades effective future stabilization capacity over time, reducing cognitive flexibility and rendering the underlying informational substrate fundamentally brittle.
Jacqueline Gheuens (Sat,) studied this question.