Originally posted by Sid Belzberg
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From Hypothesis to Theory: The Evolution of the Nested Wave Theory of Quantum Entanglement
Our team is proud to present a groundbreaking discovery originally introduced here as a promising hypothesis that has evolved into a well-supported theory, revolutionizing our understanding of quantum entanglement. Our paper has been submitted to the Proceedings of the National Academy of Sciences (PNAS), where we introduce the Nested Wave theory. This evidence-based, comprehensive framework provides a physically intuitive and mathematically consistent explanation for the behavior of entangled particles.
When we first began our investigation in February, we proposed the nested wave hypothesis based on the intriguing results of the Micius satellite experiment. While this experiment demonstrated correlations between entangled particles at different distances, it did not conclusively prove the existence of a subluminal mechanism for entanglement. Decoherence was already known to slow down photons, and the observed effects occurred at subluminal speeds, meaning that relativistic considerations did not play a significant role.
However, the groundbreaking experiments conducted by Azuma and Zia have provided the critical empirical evidence needed to elevate the nested wave hypothesis to a well-supported theory. Azuma's research on energy conservation in entangled systems offers compelling support for the
existence of a persistent mediating wave, while Zia et al. provide direct evidence of the quantum harmonic oscillator (QHO) nature of entangled particles, as predicted by Makarov.
The nested wave theory proposes a subluminal energy transfer mechanism that resolves the apparent paradox of instantaneous correlation at any distance, which Einstein famously rejected as "spooky action at a distance."
The implications of our research are profound and far-reaching. By unveiling the actual mechanics of entanglement, we are paving the way for groundbreaking advancements in quantum computing, cryptography, and communication. The nested wave theory offers a new perspective on the nature of quantum interactions, potentially unlocking novel approaches to harnessing the power of entanglement for practical applications.
Our work is the product of a collaborative effort by a dedicated team of researchers from diverse backgrounds. It highlights the importance of interdisciplinary cooperation in tackling complex scientific challenges. We are deeply grateful for each team member's contributions in pursuing this transformative research.
Final PNAS submission preprint version here
https://www.researchgate.net/publica...ial_Relativity
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