Noncommutative Precursor to Algebraic Unification of Gravity and Gauge Interactions
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This work presents a noncommutative precursor framework for the algebraic unification of gravity andgauge interactions, bridging quantum geometry with particle phenomenology. By deriving the operator structure of the unified tensor Jµν from primordial spacetime noncommutativity, we demonstrate how symmetry breaking in the quantum gravitational vacuum naturally generates:• Einstein-Cartan gravity via the symmetric sector Sµν, emerging from vacuum polarization,• Orthogonal gauge fields (Aµν) through Clifford-algebraic crystallization of the noncommutativeparameter θµν, • QFT-compatible fermions (Ψµν) via spinor-tensor embedding with explicit spin-statistics enforcement.The model resolves three fundamental challenges:1. Operator Genesis: Gauge group generators {i, j, k} arise dynamically from spacetime crystallization,eliminating ad hoc Yang-Mills structures.2. Energy Scale Bridging: A geometric positivity constraint ρvac < Λ/4γvac naturally regulates vacuumenergy, resolving the 120-orders magnitude discrepancy without fine-tuning.3. Geometric Unification: The full tensor Jµν = Sµν + Aµν + Ψµν unifies sectors through entropicdecomposition, guided by Perelman-inspired entropy functionals and Ricci flow with surgery.Key predictions include:• Modified gravitational wave spectra with low-frequency cutoff fΛ ∼ √Λ ≈ 10−18 Hz, detectable innext-generation CMB experiments,• Dark matter candidates decoupled via operator orthogonality,• Baryogenesis via CP-violating correlations in the Clifford condensate.The framework establishes spacetime noncommutativity as a mechanism to simultaneously address the hierarchy problem and quantum gravity, offering testable links to inflationary relics, black hole shadows, and late-time cosmology. By embedding the Perelman entropy formalism into geometric flows, we further demonstrate singularity resolution through horizon-scale surgery and thermodynamic stabilization of spatial topology. Significance: This work provides a mathematically rigorous pathway to quantum gravity that remains observationally falsifiable, while naturally incorporating Standard Model physics through geometric-algebraicprinciples.



