DTA (Dissipative Time Algebra) B; Algebraic Realization of Time Quantization

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Autores principales: ZHOU, ziqing, zhou, Changzheng
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Publicado: Zenodo 2025
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author ZHOU, ziqing
zhou, Changzheng
author_facet ZHOU, ziqing
zhou, Changzheng
contents <p>This paper proposes a quantum gravity framework based on non-unitary time evo<br>lution, resolving the compatibility between spacetime quantization and causal order<br> through a discrete temporal algebraic structure. Key innovations include: 1. Construct<br>ing a background-independent discrete time group using Planck-scale temporal evolution<br> primitives; 2. Proving equivalence between causal structure stability and the kernel di<br>mension of spin network vertex operators; 3. Deriving the time-energy duality relation<br> Δ ⋅| / | ≥ ℓ , revealing thermodynamic constraints in quantum spacetime; 4. De<br>signing dual-path experimental verification via cold-atom simulations and gravitational<br> wave observations. This work establishes a mathematically rigorous and experimentally<br> testable new paradigm for quantum gravity</p>
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publishDate 2025
publisher Zenodo
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spellingShingle DTA (Dissipative Time Algebra) B; Algebraic Realization of Time Quantization
ZHOU, ziqing
zhou, Changzheng
quantum gravity; time quantization; causal stability; non-unitary evolution; spin net works; Planck scale
<p>This paper proposes a quantum gravity framework based on non-unitary time evo<br>lution, resolving the compatibility between spacetime quantization and causal order<br> through a discrete temporal algebraic structure. Key innovations include: 1. Construct<br>ing a background-independent discrete time group using Planck-scale temporal evolution<br> primitives; 2. Proving equivalence between causal structure stability and the kernel di<br>mension of spin network vertex operators; 3. Deriving the time-energy duality relation<br> Δ ⋅| / | ≥ ℓ , revealing thermodynamic constraints in quantum spacetime; 4. De<br>signing dual-path experimental verification via cold-atom simulations and gravitational<br> wave observations. This work establishes a mathematically rigorous and experimentally<br> testable new paradigm for quantum gravity</p>
title DTA (Dissipative Time Algebra) B; Algebraic Realization of Time Quantization
topic quantum gravity; time quantization; causal stability; non-unitary evolution; spin net works; Planck scale
url https://doi.org/10.5281/zenodo.17036145