What question did this study set out to answer?

To introduce and explain the OPAI-BRN hypothesis, a deterministic framework for quantum phenomena.

January 14, 20260 citationsOpen Access

OPAI–BRN Hypothesis: A New Quantum Realism Based on Order–Phase Architecture Interaction and the Necessity of the Born Rule

Key Points

To introduce and explain the OPAI-BRN hypothesis, a deterministic framework for quantum phenomena.
Presented a new hypothesis based on three components: active radiative waves, post-radiative residues, and spatial noise.
Derived mathematical structures and appendices for the model.
Explained phenomena such as interference and entanglement without postulating wavefunction collapse.
The theory reproduces the Schrödinger equation in weak-dissipation limits.
Predicts nonlinear corrections and decoherence in general environments.
Presents experimentally testable deviations from standard quantum mechanics.

Abstract

Short Abstract (recommended for Zenodo): Abstract: This work introduces the OPAI-BRN hypothesis, a fully realist and causal framework for quantum phenomena based on three physical components: active radiative waves RRR, post-radiative residues ZZZ, and spatial noise III. Quantum interference, decoherence, entanglement, and the Born rule naturally emerge from deterministic interactions among RRR, ZZZ, and III, without postulating wavefunction collapse or nonlocal signaling. In the weak-dissipation limit (I→0I 0I→0), the theory reproduces the Schrödinger equation and the standard Born rule. In general environments (I>0I>0I>0), it predicts specific nonlinear corrections, residue-driven decoherence, and experimentally testable deviations from standard quantum mechanics. This preprint provides the mathematical structure of the model, detailed appendices for derivations, and a consistent dynamical explanation of interference, Bell-type correlations, and decoherence.

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