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A historical bottleneck in analytic number theory treats the Twin Prime Conjecture (pₖ₊₁ - pₖ = 2) as an isolated combinatorial enigma or a stochastic distribution over a continuous real line, stripping the problem of intrinsic geometric constraints. This paper introduces an autonomous, self-contained paradigm shift by reformulating the integer space as a three-dimensional discrete topological manifold (Mⅾ ⊂ ℤ³). Within this quantized lattice, where prime numbers act as fundamental, irreducible orthogonal eigenstates, arithmetic interactions are modeled as physical state transitions under a non-local, self-adjoint Coupling Operator (Ĉ = Ĉ†) acting on the Hilbert space ℓ²(Mⅾ). By invoking the Hydrodynamic Exclusion Principle over a viscous and incompressible primordial fluid substrate, we prove that adjacent independent vortices cannot occupy contiguous scalar coordinates (δ = 1) due to a divergent hydrostatic pressure gradient (-∇ P → ∞). Consequently, the scalar interval δ = 2 is analytically derived as the absolute, non-zero minimum coupling length required to sustain topological equilibrium between twin eigenstates. Furthermore, by evaluating the transition kernel through global metric conservation laws and discrete Lyapunov functionals, we demonstrate that the "binding energy" of the pair resonance is a scale-invariant topological fraction of the lattice. By solving the characteristic secular determinant equation through Laplace cofactor expansion, we verify that the spectral translation commutator vanishes [𝒯̂, T̂_s] = 0, ensuring that the interaction invariants are rigidly preserved under spatial shifts. The non-vanishing of the coupling spectrum at infinite limits guarantees that the statistical frequency of these paired gates remains rigidly unperturbed by the logarithmic decay of prime density. This mathematical framework delivers a definitive, historically independent validation of the conjecture, confirming that the infinite recurrence of twin primes is a mandatory requirement to preserve the spectral rigidity and structural balance of the physical universe.
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Roger Vicente Torres Aguero (2026) studied this question.
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