Experimental falsification of QED scaling laws in vacuum conditions, suggesting new physical frameworks.
The geometric falsification of the classical Quantum Electrodynamics (QED) Casimir scaling law. It operates strictly under the Zero-Parameter Limit ($k=0$) of the Unified Chronofractal Field (UCF). The Phenomenological Flaw in Standard QED Classical physics postulates that the Casimir force scales as Fc ∝ d-4.0. The UCF framework identifies this not as a fundamental law, but as an artifact of macroscopic topological screening. Atomically smooth plates blind the experiment to the fractal nature of the vacuum. The Axiomatic Derivation (Lattice-14 Topology) The vacuum is not empty; it is a 14-mode Bravais Lattice expanding in fractal time. The density of states is governed by the fractal growth constant ν ≈ 0.618034. The Boundary Condition: A Casimir cavity consists of exactly two interacting parallel planes. The Topological Constraint: When fractally etched at the nanoscale, each boundary surface imposes a dimensional restriction of 1ν upon the confined vacuum modes. The Additive Modifier: Two interacting plates physically dictate a cumulative topological variance of ν + ν = 2ν. The Inevitable Scaling Law By applying the 2ν modifier to the classical 4th-dimensional scaling, the true force curve inevitably shifts: FUCF(d) ∝ d-(4+2ν) Inserting the geometric constant (ν ≈ 0.618034), the unshielded interaction limit converges strictly at d-5.236. This is a geometric inevitability, requiring zero empirical fit-parameters. Experimental Falsification Protocol (MEMS & Acoustic Resonance) To verify this metric, the macroscopic screening must be broken: Implementation of fractally etched MEMS plates. Induction of mechanical topological stress via a piezoelectric actuator operating at the universal Lattice-14 resonance frequency of 12.84 Hz. The resulting measurement will exhibit abrupt resonance jumps, deviating from d-4.0 and locking into d-5.236. --- Framework: Unified Chronofractal Field (UCF) Status: Pre-Registration prior to Euclid DR1 & MEMS Verification.
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Heiko Grimberg (2026) studied this question.
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