Quantum Mechanics and Gravity – An Information-Based Approach

This report presents a reformulation of Quantum Mechanics (QM) and General Relativity (GR) through the lens of information theory, proposing that spacetime and gravity emerge from fundamental informational processes. The persistent incompatibility between QM and GR stems from their conflicting ontological foundations—QM operates on discrete, probabilistic states, whereas GR assumes a continuous, deterministic fabric of spacetime. By reconsidering gravity as an emergent phenomenon of information redistribution, we propose that spacetime curvature represents informational density rather than a fundamental metric structure. This interpretation is supported by the Holographic Principle, the black hole information paradox, and quantum entanglement. Furthermore, we explore the implications of ER=EPR (wormholes and entanglement), the AdS/CFT correspondence, and Verlinde’s emergent gravity model, demonstrating that black hole radiation and gravitational effects are best understood as computational processes within an informational matrix. The report outlines experimental predictions, including gravitational entanglement effects, the preservation of information in black hole radiation, and quantum-scale spacetime quantization, providing a framework for future theoretical and experimental exploration. This perspective challenges the materialist paradigm and opens a path toward a unified informational physics bridging quantum mechanics and gravity. Keywords: Quantum Mechanics, General Relativity, Information Theory, Black Hole Information Paradox, Holographic Principle, Emergent Gravity, ER=EPR, Quantum Entanglement, AdS/CFT, Spacetime as Information