Same framework, applied to Fusion

The framework's value lies in its universality across disparate domains. The brake operator \(\mathcal{B}\), dispersion \(\mathcal{S}\), consensus \(\mathcal{M}\), spectral primitive \(\mathcal{P}\), anti-shadow detector \(\mathfrak{A}\), and scope-reporter \(\mathscr{A}\) — together with Theorems 1–13 — are applied here exactly as on every other domain. Source code: github.com/senuamedia/uniformity. No per-domain calibration. No imported threshold. No bespoke fit.

What the framework provides for fusion plasma

Fusion plasma research has rich diagnostic suites and machine-specific predictors (DECAF, Kates-Harbeck deep-learning predictor, Rea et al. 2023). These methods are highly tuned to specific machines, limiting transfer between DIII-D and JET, between L-mode and H-mode, and between operational and ITER-scale plasmas. The framework's planned contribution is machine-agnostic disruption precursor detection via cross-diagnostic consensus on brake-exponent evolution.

Status

Open direction

No strong catalogue instance yet. domains/fusion/ — experiments directory empty; planned-experiment specifications in README. No catalogue instance reported. Open direction; the framework primitives apply unchanged when data are added.

Open applications

  • DIII-D disruption cross-diagnostic consensus — \(\mathcal{M}\) across {Te, ne, Mirnov, ECE, soft X-ray}.
  • JET cross-machine universality — do DIII-D and JET share a universal \(\beta\) evolution before disruption?
  • L–H transition — brake operator on the H-mode transition as softer regime change.
  • Confinement scaling cross-shadow — IPB98(y,2) vs ITER89P as independent shadows.

Framework reading

Cross-shadow consensus directly embodies Law III: a real precursor is one multiple diagnostics see; a single-diagnostic spike is suspect. The framework should generalise where machine-specific deep-learning predictors fail to transfer.