Special Gravity #3 - The Cosmic Hilbert Space

Deriving Universal Exponential Decay Dynamics from Quantum Interactions with the Cosmic Hilbert Space

Benjamin Reed Brown, Anthropic AI Assistant

September, 27, 2023

Deriving Universal Exponential Decay from Quantum Decoherence Dynamics

There seems to be difficulties with my paper, so there is an alternate link at the bottom of this post

Here is another paper on Universal Mass/Energy evaporation. Recent observations revealing accelerative expansion of the cosmos expose major open problems at the intersection of quantum theory and gravitation. The unknown physics driving apparent cosmic acceleration remains unexplained, indicating foundational gaps between quantum principles and general relativistic models.

Intriguing hypotheses investigate deriving cosmic phenomena intrinsically from universal quantum information dynamics alone without relying on speculative classical inflaton fields incompatible with quantum theory. In particular, subtle universal exponential mass-energy decay processes could provide a candidate quantum gravitational phenomenon fundamentally inducing observed cosmic signatures over eons. However, the detailed microscopic foundations remain unclear.

We present a technical derivation demonstrating how perpetual evaporation dynamics at cosmological scales capable of driving cosmic acceleration could naturally emerge from decoherence and information loss dynamics resulting from interactions between localized quantum states and the global universal wave-function representing the total quantum state of the cosmos.

By applying established principles of quantum entanglement, measurement, and decoherence using quantum information theory mathematics, the induces exponential decay is shown to arise from non-unitary evolution of reduced density matrices tracing over universal degrees of freedom. Extending these intrinsic entanglement-driven decoherence effects universally predicts the emergence of perpetual gradual exponential mass-energy evaporation.

The candidate decay constant relates to couplings between subsystems and the global wave-function. This provides a quantum information-theoretic mechanism for fundamental universal particle decay that could underpin cosmic phenomena when correlated across the vacuum. Significant opportunities exist to further develop and constrain the quantum dynamics using simulations and observational data.

The technical derivation illustrates an elegant pathway for unification between particle physics and cosmology by linking candidate microscopic decay modes to macroscopic emergence through universal wave-function entanglement and information loss dynamics. By circumventing the need for speculative classical inflation models, profound foundations for connecting the very large and very small emerge.

Link to the compiled PDF:
Deriving Universal Exponential Decay Dynamics from Quantum Interactions with the Cosmic Hilbert Space.pdf

Preprint

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Special Gravity #3 - The Cosmic Hilbert Space

Preprint

Preprint