Type · PaperStatus · PublishedDomain · Physics / foundations
The Triadic Fixpoint Framework (TF2) Emergent Reality, Time, and Cosmology from Informational Invariance
Reality treated not as a presupposed stage but as the unique stable fixpoint of a repeated loop between physical evolution and informational update. Time, gravitation, the measurement problem, and cosmology are reconstructed from that single convergence — with testable predictions for how fast quantum systems settle under repeated measurement.
TF2 · ZENODO
Type · PaperStatus · PublishedDomain · Physics / information geometry
The Architecture of Information
The mathematical core: an information metric derived from the distinguishability of neighbouring states, and from it the Triadic Field Equations — structurally parallel to Einstein's equations and recovering them as a limit case, with gravitation read as the cost of deviating from the stabilized state.
TF2.5 · VOL. I · ZENODO
Type · PaperStatus · PublishedDomain · Physics / Standard Model
The Architecture of Matter Stabilizer Symmetries and the Informational Origin of the Standard Model
The gauge structure of the Standard Model — SU(3)×SU(2)×U(1) — as the symmetry modes that leave the fixpoint invariant. Particles appear as vibration modes, masses as small deviations from perfect symmetry; Higgs, three generations, neutrino mixing, CP violation, and confinement follow without separate assumptions.
TF2.5 · VOL. II · ZENODO
Type · PaperStatus · PublishedDomain · Physics / cosmology
The Triadic Architecture of Destiny
Cosmology as regimes of one contraction toward a global informational attractor Ω: the arrow of time as the direction of contraction, black holes as regions of maximal informational stabilization, inflation and dark energy as phases of the same informational tension — with observers as ordinary informational subsystems, no special role required.
TF2.5 · VOL. III · ZENODO
Type · Preprint (v1.1.0)Status · Published · DOIDomain · Computational optics · reproducibility
The Residuum of the Possible Result-Blind Generation of Single- and Double-Slit Structure from a Constraint Cascade
A benchmark, not a new theory of diffraction. The solver is given only a device class, one invariant free-space evolution operator, a binary geometric admissibility mask, and a square-law detector. It is denied the single-slit minimum formula, the double-slit path-difference relation, the fringe spacing, and any target profile; the analytic controls run afterwards, in a separate process, against profiles already written to disk. Blind result: the first four single-slit minima at 30 µm agree with the post-hoc controls to 0.00953 % maximum relative position error, and 0.00176 % after a blind width change to 17 µm with propagator, detector and thresholds frozen. An independent direct-space Rayleigh–Sommerfeld solver sharing no code path reproduces the same minima to within 1.4 µm. The claim is a separation, not a physical result: the generative content of scalar diffraction partitions exhaustively into four phenomenon-independent components, and the analytic result laws occupy none of them. It fails visibly if a new aperture geometry in the scalar regime requires a phenomenon-specific change to the evolution operator or the detector.
DOI 10.5281/ZENODO.21910801 · CC BY 4.0 · CODE MIT