Predictions and Tests
The Axis Model makes specific, falsifiable predictions across multiple domains. This page presents empirical tests and observational analyses that probe the theory's core mechanisms.
Embedded Files
Section 1: Gravitational Phenomena
Coherence–Filtered G-eff (x): A Linked Test Using Gravitational Lensing and Gravitational–Wave Propagation
Currently submitted to the Gravity Research Foundation's 2026 Awards for Essays on Gravitation. This test exploits a strict multi-messenger redundancy: if a single coherence field gates gravity, it must rescale both gravitational lensing observables and gravitational-wave amplitude transport along the same line of sight. Strongly lensed standard sirens therefore provide an overconstrained null test—agreement confirms the closure, while any statistically significant mismatch falsifies the model outright. Analysis complete. Upon outcome, a follow-up paper with results will be forthcoming. Specifically, we will report sinf posteriors for all candidate hosts within the search radius without post-hoc selection.
Predicting and Bounding Earth Flyby Velocity Anomalies Using a Minimal Discrete-State Model
Earth gravity assists exhibit millimeter-per-second velocity residuals that evade conventional continuous perturbation models. Here, flyby anomalies are treated as outcomes of a minimal discrete-state transition, predicting a quantized ladder of allowed Δv values. Future flybys must land on this ladder—or decisively rule the framework out.
Section 2: Particle Physics
Environment-Dependent Neutrino Mass from Scalar Projection: A Unified Explanation of the θ23 Bifurcation in T2K and NOνA
Long-baseline neutrino experiments report a persistent bifurcation in the atmospheric mixing angle θ23. This work tests a falsifiable alternative to fixed neutrino masses: scalar-projected, environment-dependent mass eigenstates that naturally generate bimodal posteriors. The model collapses to standard oscillations in coherent limits and makes concrete predictions for DUNE and Hyper-K.
Section 3: Large-Scale Structure
Cross-Survey Evidence for a Polar Radio Dipole
Independent radio surveys (NVSS, TGSS, LoTSS) consistently recover a high-latitude dipole in extragalactic source counts. This analysis demonstrates cross-survey stability, controlled null tests, and a smooth flux-dependent approach to the kinematic expectation—providing a clean, reproducible benchmark for isotropy tests in large-scale structure
Keywords: Axis Model, falsifiable predictions, empirical tests of gravity, beyond General Relativity, emergent spacetime, environment-dependent gravity, effective Newton constant, coherence-filtered gravity, equivalence principle tests, multi-messenger astrophysics, gravitational lensing, gravitational-wave propagation, standard sirens, lensed gravitational waves, GW–EM distance comparison, modified GW friction, coherence tomography, orbital mechanics anomalies, Earth flyby anomaly, spacecraft gravity assists, discrete-state dynamics, velocity quantization, near-Earth gravitational environment, neutrino oscillations, environment-dependent neutrino mass, scalar-projected mass, atmospheric mixing angle, theta23 bifurcation, long-baseline neutrino experiments, T2K, NOvA, DUNE predictions, Hyper-Kamiokande predictions, large-scale structure, statistical isotropy, cosmic radio dipole, extragalactic radio surveys, NVSS, TGSS ADR1, LoTSS DR2, number-count dipole, kinematic dipole, cosmic rest frame, reproducible analysis, null tests, overconstrained tests, preregistered analysis
Page updated
Google Sites
Report abuse