Frameworks

Introduces an effective spectral participation density dN_eff/dω = N_b(r,ω,t)·P_occ(ω,φ_q)·g(ω) that captures how time-dependent boundaries dynamically reorganize the local field-mode spectrum and thereby modify interaction rates without changing fundamental field theory. The framework is validated with perturbation theory, Floquet analysis, and 1-D FDTD simulations and yields testable predictions—mode broadening, sidebands, and transport/emission corrections—relevant to plasmas, cavity QED, and engineered photonic media.

𝒲ℰσ̄ presents a physically constrained meta-framework for structural persistence that defines three canonical quantities—adaptive potential (ℰ), basin stability (σ̄), and counterfactual weight (𝒲)—and a diagnostic Γ = (ℰ·σ̄/𝒲)^(1/3) to quantify persistence per maintenance cost. The framework pairs formal definitions and theorems with a domain gate for admissibility, operational proxies (C, ℰ̂, σ̂), practical validators (including synthetic validation across 1000+ ecosystems, Spearman ρ = 0.89), and applications ranging from ecology and economics to a cosmological measure for observers.

by Kevin TilsnerPublished 4/10/20260 supporting papers

Mode Identity Theory (MIT) was a topological thought formed on philosophical grounds before any prediction was computed. Waves were fundamental before any matter was consulted, and nothing was twisted besides Plato after the fact.

by Blake L ShattoPublished 4/2/202612 supporting papers

Quantum Harmonia (QH) is an empirical five-parameter phenomenological framework that identifies a universal scale‑coupling δ = 0.502 ± 0.031 spanning laboratory quantum coherence to cosmological structure (61 orders of magnitude), with a hierarchical analysis strongly favoring a single δ across domains. Applied to cosmology it provides scale‑dependent corrections that can alleviate the H0 and S8 tensions without new particles or altered early‑time physics, and it makes concrete, near‑term falsifiable predictions for LIGO/Virgo/KAGRA ringdown scaling, Euclid BAO shifts, and DESI dark‑energy measurements.

by Adam MurphyPublished 3/24/20260 supporting papers

We examine the theoretical consistency of a minimal Standard Model extension featuring a real scalar field Φ, singlet under all gauge interactions, coupled to the Higgs doublet through a density-modulated Higgs-portal interaction. The scalar sector employs the most general renormalizable potential consistent with gauge invariance and discrete ℤ₂ symmetry, with the portal coupling rescaled by a dimensionless function S(Σ) of coarse-grained macroscopic energy density. For any fixed density, the theory reduces to conventional singlet-Higgs extension with effective portal coupling λ̃ΦH = S(Σ)λΦH, maintaining local, polynomial, and renormalizable structure.