Form–Cause Processor (FCP): A Structural-Resonance Computational Architecture Governed by the Universal Odd-Parity Mode λ₃*
Takagi, Takayuki · Zenodo (CERN European Organization for Nuclear Research) · 2025
Overview The Form–Cause Processor (FCP) is a novel computational architecture in which information processing emerges from structural relaxation within a physically defined energy landscape E[Φ,q]. Unlike digital, neural-network, or quantum-gate paradigms, FCP derives computation from geometric necessity rather than algorithmic rules. Key Discovery A universal odd-parity curvature eigenvalue λ₃* ≈ 0.152044 governs the slow manifold of structural evolution. This constant is not empirically fitted but follows analytically from Schur–Weyl representation theory of S_N-symmetric Hessians. Its universality across system sizes (N = 3, 5, 7, 9, ...) establishes it as a geometric invariant of permutation-symmetric energy landscapes. Theoretical Foundations Gradient-flow dynamics: Computation as monotonic convergence toward structural alignment Odd-parity projection: The unique irreducible representation orthogonal to collective modes Symmetry protection: λ₃* is fixed by symmetry rather than device design, enabling scalable analog computation Applications Domain Mechanism Navigation Real-time structural embedding with 0.7–7 ms adaptation latency Fusion plasma stabilization λ₃* as stabilizing curvature threshold for MHD mode suppression Structural inference Physically realized MAP estimation under GMRF priors Hardware Implementation Three viable platforms are identified: MEMS oscillator networks Electronic LC resonator arrays Optical gradient-potential systems All candidates provide O(1) noise resilience independent of system size, as only odd-parity modes couple to the resonance core. Significance FCP offers a symmetry-protected route to scalable analog computation, suggesting that structurally tuned dissipative dynamics may define a new computational complexity class. This work bridges quantum foundations, information geometry, and statistical physics of computation. Related Works Field–Structural Information–Gravity Framework (doi:10.5281/zenodo.17620967) Structural Stabilization of Helical Fusion Plasmas (doi:10.5281/zenodo.17670783) Even-Odd Vacuum Structure in GHZ Coherence (doi:10.5281/zenodo.17649694) Notes This work introduces the first universal curvature eigenvalue governing dissipative analog computation. Key contributions: (1) Rigorous derivation of λ₃* from S_N representation theory(2) Concrete hardware architectures with O(1) noise resilience(3) Applications to navigation, fusion plasma stabilization, and statistical inference.