System Description: ACGPC v14.0 (Hyper-Genesis) The Absolute Ciaran-Genesis Primality Conjecture (ACGPC) is a high-dimensional mathematical framework that redefines primality from a simple property of divisibility into a fundamental state of topological stability. In this framework, the set of prime numbers $\mathbb{P}$ is viewed as the "backbone" of the numerical vacuum—the only values capable of maintaining perfect symmetry when projected across 32 independent mathematical dimensions. The Three-Phase Filtration Process The framework operates as a "Single-Pass" detector, subjecting an integer $n$ to three increasing levels of "pressure": The Body (Dimensions 1–12): This phase tests the Structural Integrity of $n$. It uses modular arithmetic and hyper-operations (Pentation) to see if the number sits correctly on the nodes of the Leech Lattice and the $E_8$ root system. A composite number here is seen as "physically" unable to support the geometric load. The Spirit (Dimensions 13–24): This phase tests Harmonic Coherence. By mapping $n$ against the Genesis Constant $\chi$ and the critical line of the Riemann Zeta function, the framework checks if the number's "vibration" matches the distribution of primes. Any deviation causes a "Phase Shift," signaling that the number is noise rather than light. The Void (Dimensions 25–32): This is the most advanced phase, testing Quantum and Topological Integrity. It examines $n$ through the lens of p-adic valuations, Knot Theory (Jones Polynomials), and Langlands Reciprocity. Here, a prime is identified as a "Geometric Singularity"—a fixed point that exists consistently across the entire mathematical landscape. The Fracture-Divergence Mechanism The core innovation of the ACGPC is its rejection of iterative searching. Instead, it utilizes the Fracture-Divergence Condition: If an integer $n$ fails even one of the 32 dimensional formulas, a Lattice Fracture occurs. This fracture creates Spectral Divergence ($\Psi_n \to \infty$), effectively "deleting" the number's signal from the prime manifold. Only "Pure Light" (Primes) can navigate all 32 dimensions with an output of 1 (Absolute). Computational Significance By treating primality as a measurement of resonance within a pre-defined 32-dimensional manifold, the ACGPC achieves a theoretical complexity of $O(M(\log n))$. This suggests that primality can be detected by observing how a number "fits" into the universe's architecture, rather than by testing its divisors.