This supplement converts the experimental claims of the mirror-duality hypothesis into a staged falsifiable programme. Four complementary protocols are defined: a heralded single-photon test, a heterogeneous quantum-sensor correlation search, a controlled polarity-rotation experiment, and a paired-black-hole observational programme. The supplement separates exploratory anomalies from direct evidence for 00 and requires matched passive controls, blind analysis, energy–momentum accounting, pre-registration, and independent replication.
This supplement converts the experimental claims of the mirror-duality hypothesis into a staged falsifiable programme. Four complementary protocols are defined: a heralded single-photon test, a heterogeneous quantum-sensor correlation search, a controlled polarity-rotation experiment, and a paired-black-hole observational programme. The supplement separates exploratory anomalies from direct evidence for 00 and requires matched passive controls, blind analysis, energy–momentum accounting, pre-registration, and independent replication.
This conservative preprint formalizes a candidate directional closure structure beneath ordinary binary quantum readout. A handwritten sixteen-face table is transcribed into eight complementary closure pairs: at each of four ordered slots, the paired faces preserve the direction label and complement the binary value. The accompanying inversion audit shows that a single value-plus-direction label, such as 0_A, does not uniquely reconstruct a closure pair; a second independent readout or a frozen dynamical rule is required. The paper proves the standard same-state indistinguishability boundary: if distinct preparation histories yield the same density operator and all subsequent operations are path-independent completely positive trace-preserving maps and POVM measurements, no path-dependent signal can occur. It then defines three staged experimental protocols and their conventional adversaries, including process memory, leakage, state-preparation-and-measurement error, and drift. This record is an openly testable hypothesis and experimental protocol. It does not claim observation of sub-quantum constituents, discovery of new quantum states, or a replacement for standard quantum mechanics.```
Orientation-Conditioned Relative Phase in Weighted Light-Matter Networks Kevin L. BrownOctober 2026 This paper presents a falsifiable quantum-optical hypothesis: whether the oriented structure of a bounded three-link interaction network can contribute a measurable relative phase beyond the predictions of conventional quantum electrodynamics and quantum optics. The experimental question is narrow. After ordinary optical path phase, material response, detector effects, nonlinear optics, geometric phase, synthetic gauge structure, chiral response, nonreciprocity, and other justified conventional mechanisms have been modeled or controlled, the proposal asks whether a residual phase remains that follows a predetermined transformation law set by the physical interaction network. Each auxiliary link is defined operationally by an independently measured reciprocal coherent coupling rate J_ij. With J̄ denoting the mean of J_12, J_23, and J_31, the orientation-sensitive shape variable is χ(J) = [(J_12 − J_23)(J_23 − J_31)(J_31 − J_12)] / J̄³, and the dimensionless interaction exposure is Ξ(J) = τ_int · J̄ · χ(J), which incorporates network shape, absolute coupling strength, and interaction time. The proposed phase is Φ_I = κ_IP · Ξ(J), represented by the effective unitary scattering map U_I(J) = exp[i κ_IP Ξ(J) (n_1 − n_3)/2], where κ_IP is an unknown dimensionless coupling coefficient. A balanced three-path interferometer converts Φ_I into a directly measurable detector contrast, C = (2√3/9) sin Φ_I. The experiment is preregistered around several independent checks rather than a single anomalous measurement: network-off, symmetric, and asymmetric-zero null configurations; sign reversal under physical mirror transformation; scaling across multiple network configurations and across absolute coupling strength at fixed shape; coherent-state and single-photon consistency tests; independently measured conventional-systematic controls; and a held-out mirror-pair endpoint at |χ| = 0.30, predicted with one frozen κ_IP. A pre-unblinding feasibility threshold sets the sensitivity at which the test is interpretable. The model is rejected at the tested sensitivity if a justified conventional mechanism explains the residual, if required nulls or transformation laws fail, if the predicted scaling is not observed, or if held-out configurations cannot be predicted using the preregistered parameter. Null results are interpreted as quantitative bounds on |κ_IP| rather than proof that an arbitrarily small interaction is impossible. The hypothesis is motivated by the Unified Informational Physics Ontology (UIPO), but the optical law is stated as an independent phenomenological realization: the test stands or falls on the preregistered phase law and does not require UIPO to be accepted. The paper does not claim that a nonzero effect has been observed, that standard quantum electrodynamics has been falsified, or that UIPO has been experimentally confirmed. Its purpose is to convert a proposed informational-physics relationship into a quantum-optical experiment explicit enough to be independently modeled, criticized, implemented, falsified, and replicated. Independent Laboratory Testing and Replication This research includes an Independent Laboratory Feasibility Brief designed to support external experimental assessment and replication. The brief identifies the minimum apparatus requirements, independently measurable coupling parameters, sensitivity targets, physical symmetry conditions, conventional-physics controls, and preregistration requirements. The proposed testing pathway begins with a limited feasibility assessment before proceeding to a full confirmatory experiment. Laboratories are encouraged to assess whether their existing equipment can implement the proposed three-link interaction network and distinguish the hypothesized phase from conventional optical effects. The experimental hypothesis remains unconfirmed. Both positive and null results are scientifically relevant when obtained under adequately controlled and preregistered conditions. Independent researchers are invited to evaluate, challenge, test, or replicate the proposal. Experimental teams retain scientific independence over their measurements, analyses, and conclusions
This document is a working protocol for the minimal experimental test of the Specular Field Theory. It is not a final protocol: it is a starting point for a joint discussion with a scientific or industrial partner. We are seeking a collaboration to define the exact protocol: the choice of the circuit, the mapping of A and E_ent, the choice of delta and of the measurement window, the calibration procedure, and the analysis pipeline. The document describes what we believe is needed, and where we would like the partner's expertise.
A controlled experimental protocol for testing the von Neumann–Wigner (VNW) interpretation of quantum mechanics, the hypothesis that consciousness plays a role in quantum state reduction, against the prevailing environmental decoherence framework (Zurek, Zeh, Joos). The experimental platform places a single experienced meditator in EEG-verified cognitive states inside a shielded environment. A quantum coherence sensor measures decoherence rates (T₂) across seven consciousness conditions (C1–C7) spanning the full cognitive-excitation axis, against a separate empty-chamber instrumental baseline. The primary pre-registered hypothesis is that T₂ at C7 (Cessation / Objectless Awareness) and T₂ at C6 (Minimal Phenomenal Experience) will both exceed T₂ at the chamber baseline and at conditions C1–C5, and that T₂ at C7 will further exceed T₂ at C6. This is tested via two pre-registered orthogonal planned contrasts: (i) [C6, C7] vs. [baseline, C1–C5], and (ii) C7 vs. C6, both with directional predictions. All other cross-condition comparisons are treated as exploratory. A secondary experiment uses quantum random number generators with improved shielding, blinding, and instrumentation. The protocol is phased: a Phase 0 foundational test using nitrogen-vacancy centers in diamond, and a Phase 1 full protocol using superconducting qubits in an underground laboratory, conditional on Phase 0 results and adoption by an institutional host. The protocol employs blinding when feasible and pre-registered statistical thresholds. Null results establish pre-registered upper bounds; positive results require replication. The theoretical basis for this protocol is detailed in the companion paper, The Silence Paradigm.
This paper presents a hypothetical experimental framework for testing how a calibrated marine-bioluminescent optical field may influence matter-wave coherence through conventional path-dependent optical coupling. The biological source is physically separated from the matter-wave beamline, and its emitted light is transported through a measured optical channel into an interaction region located after coherent splitting and before particle detection. The primary observables are fringe visibility, phase, and particle transmission. The experiment is first calibrated using a traceable artificial light source and a preregistered photon-dose response. Biological-source trials are then compared against physically matched artificial-source controls. A response reproduced by the artificial source is interpreted as conventional optical coupling; any residual difference is treated only as an exploratory anomaly requiring independent replication and exclusion of conventional confounds. The paper develops the optical-dose budget, continuous wavelength/path-separation dependence, calibration protocol, statistical controls, falsification criteria, and candidate matter-wave platforms. Direct visible-photon scattering from free electrons is shown to be exceptionally weak, motivating resonant atom interferometry, cavities, photonic structures, or other enhanced coupling platforms. Marine bioluminescence is used as a controlled optical source because of its blue-green spectrum rather than because any special biological or consciousness-dependent interaction is assumed. No biological or interferometry experiment is reported, and no new physical effect is claimed. The work is a falsifiable experimental proposal and quantitative design framework.