
I present an ontological interpretation in which photons and quantum states possess a non-zero internal time associated with wavelength. This internal time is an intrinsic property of the quantum state and does not correspond to relativistic proper time or propagation time. While remaining fully consistent with quantum mechanics and relativity, the theory leads to clear, falsifiable predictions in interference experiments. In particular, time-asymmetrical interference effects and coherence anomalies are predicted under controlled internal-time synchronization. I describe the theoretical foundations of the framework, outline its experimental predictions, and discuss the expected observational signatures.
Internal time, Photon, Wavelength, Quantum entanglement, Ontological interpretation, Planck length, Extreme photon wavelength, Young experiment, Interference, Time-Asymmetrical Interference, Delayed-Choice
Internal time, Photon, Wavelength, Quantum entanglement, Ontological interpretation, Planck length, Extreme photon wavelength, Young experiment, Interference, Time-Asymmetrical Interference, Delayed-Choice
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