David Lee Williamson | Energy Healing & MindShift Coaching
⚛️  Physics Research

Spherical Time, Quantum Oscillations,
and the Black Hole Information Paradox

A Testable Framework

📄 3 Pages 📅 January 2025 🔬 Quantum Gravity & Astrophysics

Abstract

We propose a novel framework wherein spacetime emerges as a network of quantum oscillators governed by spherical time — an interplay between past annihilation and future creation operators. Past annihilation operators are black holes (or wormholes, "infinities") whether on the Planck scale or the Cosmological scale. This model naturally integrates quantum mechanics and general relativity by treating the evolution of black holes, mass generation, and dark energy as emergent effects of fundamental temporal oscillations. We present testable predictions in astrophysical observations, quantum optics, and black hole analog experiments that offer experimental validation of this approach. Finally, we explore formal mathematical formulations including Lagrangian dynamics, path integrals, and holographic principles.

Testable Predictions

  • 1 Hawking Radiation Correlations — The framework predicts Hawking radiation is not purely thermal but encodes hidden correlations between emitted photons, detectable as deviations from a pure blackbody spectrum. Test via: Gamma-ray and X-ray observatories (JWST, Athena, Fermi) measuring non-random entanglement signatures in black hole emissions.
  • 2 Gravitational Wave Echoes — Because black holes store rather than erase information, gravitational wave signals from mergers should exhibit "echoes" — post-merger oscillatory deviations from classical predictions. Test via: LIGO and LISA detectors analyzing post-merger signals for deviations consistent with past-future oscillatory coupling.
  • 3 Quantum Simulation of Information Scrambling — Black holes scramble information rather than destroy it. Simulating this in superconducting qubit systems can verify the model's predictions. Test via: Quantum computing platforms (Google Sycamore, IBM Q) simulating black hole evaporation using unitary quantum circuits.

Conclusion

We have developed a testable framework in which black holes act as quantum processors encoding information through spherical time oscillations. Our approach provides a novel way to resolve the black hole information paradox while unifying aspects of quantum mechanics, gravity, and holography. Future work should focus on refining experimental protocols and integrating this model into broader quantum gravity research.

Full Paper

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