Scorecard Performance Evaluation
Measures, metrics, and indicators of progress and status
Nothing beats rigorous, in-depth detailed peer review scrutiny by the respected global experts.
With that in progress, here we present a collective of different ways and means to assess and judge status.
01
Respected Peer Review
The base foundation stone mechanism of GETT has
successfully been accepted into the expert peer review process at the Royal Astronomical Society Montly Notices journal. Awaiting outcome...
02
Empirical Evidence
There is a growing portfolio of the evidence of density
dependence using respected 3rd party publicly available databases, including ESA GAIA Milky Way and the SPARC galaxy data.
03
QFT /EFT Compliance
Demonstrates a covariant, gauge-invariant EFT with Higgs-portal scalar coupling, preserving QFT symmetries, locality, consistency, and
correct low-energy recovery of the Standard Model of Particle Physics.
04
Scope Applicability
There are acknowledged to be around 126 mass density
orders of magnitude, from the lowest density voids or virtually nothingness to the core of compact objects and ultimately the Big Bang - GETT has full universal scope.
05
Reconstructing Science
Any new theory must successfully complete a full historical correspondence series
reconstruction of all trusted science within its applicable domain limit.
06
Solving Science Anomalies
Gravity's cause, inertia, dark energy, dark matter, the Hubble tension, the double-slit experiment, the early universe, singularities, black holes, etc. The list grows daily.
07
Falsifiability: Specific Means
Every GETT paper proposes the tests, observations, and experiments which would falsify the theory, and render it "failed". There are a range of low tech- low cost experiments available...
08
Distinct Prediction
As GETT estalishes the domain limit applicability of GR, then it must make specific, unique, measureable, and testable predictions beyond that regime: the extreme low- and extreme high-density regimes.
On the 4th December 2025, the GETT core foundation stone mechanism: "The Gauge-Invariant Singlet Scalar Field and Its Higgs-Portal Coupling" was accepted into the RAS Monthly Notices peer review processes.

Empirical evidence using publicly available data
ESA GAIA DR3
Milky Way
The onset of Milky Way anomalous vertical velocity is linked to density
Using a random 6-million-star sample from the ESA GAIA DR3 prgramme database, analysing the point of the onset of anomalous unexplained "dark matter" vertical velocity about the galactic mid-plane, shows statistical significance that the answer is density...

Milky Way
Mechanism Bridge
GETT establishes the mechanism bridge from theory to result
This work asks a specific causal question: whether the GETT scalar-field properties necessarily imply a density-triggered change in vertical dynamical response when applied to disk galaxies, such as the Milky Way.
175 count
SPARC
Galaxies
GETT density threshold is the onset of anomalous flat rotation speed in SPARC galaxy database onset
GETT scalar field coupling quantitatively reproduces the flat
rotation velocity of Milky Way–type galaxy through its intrinsic coupling modulation. The calculation confirms that a 25–35%
enhancement of the effective acceleration arises naturally from the density-dependent tension gradient of the Holland field Φ.
Validation of the Scalar Field within QFT
The programme establishes a coherent scalar-field framework across three complementary papers: the MNRAS “foundation stone” paper introduces a QFT-permitted, gauge-invariant singlet scalar coupled via the Higgs portal; the covariant EFT paper demonstrates a fully consistent action formulation preserving general covariance, local Lorentz invariance, and Standard Model gauge symmetry while recovering GR and SM in the appropriate limits; and the comparative study systematically evaluates existing scalar–tensor and modified-gravity models, showing that the density-modulated Higgs-portal construction represents a distinct and unified mechanism not captured in prior frameworks.

Reconstucting Science
The GETT Correspondence Series is has tso far achieved 100% success across the first challenges:
1. Classical kinematics - Galileo, Kepler & Newton
2. Newtonian Gravity & Kepler's Laws of Planetary Motion
3. Einstein's Special Relativity - Lorentz invariance etc
4.1 . General Relativity - Spacetime metric, geometrisation etc
4.2 GR - Dynamics and Einstein field equations
GETT has shown that these are successful mid-density domain
limited mathematical constructs of the deeper GETT physical quantum reality.
A.I. Evaluation of GETT
Grok Expert Scores the Entire GETT portfolio vs. GR.
Leading A.I. LLM Grok Expert reviewed all 45 published GETT documents, uploaded one by one, over a 7 day period. With each
paper contributing to a scorecard of Grok's own design - how to rate, rank and score a new physicss theory against GR, and also GR with all of the theoretical mathematical "bolt-on" additions (Lambda, DE, DM etc). GETT is performing exceedingly well. ChatGPT5, Claude A.I., Copilot, Gemini, and the number of other leading A.I. LLMs, are reaching veery similar conclusions.

What does GETT claim to address, solve and resolve?
Below is a summary only - not a complete list - what GETT claims...
1. Fundamental Physics (Gravity, Inertia, Time, Mass)
- Physical cause of gravity
- Nature of gravitational force vs geometry
- Origin of inertial mass
- Equivalence of inertial and gravitational mass
- Mechanism of weight
- Origin of spacetime curvature
- Why objects follow geodesics
- Physical meaning of gravitational potential
- Origin of time dilation
- Physical cause of gravitational redshift
- Clock rate variability in gravitational fields
- Origin of proper time
- Arrow of time
- Why time flows forward
- Origin of mass
- Higgs mechanism interpretation gap
- Why mass resists acceleration
- Conservation of energy origin
- Nature of force itself
- Why acceleration requires force
2. Relativity & Foundational Laws
- Why Mass-Energy Equivalence (E=mc^2) is true
- Origin of Lorentz transformations
- Why speed of light is invariant
- Physical mechanism behind length contraction
- Physical mechanism behind time dilation (SR)
- Twin paradox
- Relativity of simultaneity
- Mass–energy equivalence mechanism
- Why no preferred reference frame
- Physical origin of relativistic momentum
- Why spacetime behaves geometrically
- Transition from Newtonian to relativistic physics
3. Quantum Mechanics & Paradoxes
- Wave–particle duality shown to be untrue
- Double-slit experiment (Young)
- Measurement problem
- Collapse of the wavefunction
- Schrödinger’s cat paradox
- Quantum superposition reality shown to be untrue
- Quantum randomness vs determinism (determinism wins)
- Quantum decoherence origin
- Heisenberg uncertainty principle origin
- Quantum tunnelling mechanism
- Quantum non-locality
- Bell’s theorem violations
- Entanglement mechanism an all-pervading scalar field solutuion
- Delayed choice experiment
- Quantum eraser experiment
- Vacuum fluctuations origin
- Zero-point energy meaning
- Path integral interpretation (Feynman)
4. Optics & Classical Wave Mysteries
- Young’s interference pattern origin: GETT scalar field support waves. Particle remain particles.
- Feynman photon path paradox
- Reflection mechanism at interfaces
- Refraction mechanism origin
- Snell’s law physical cause
- Speed of light in media variation
- Diffraction origin
- Polarisation mechanism
- Why light follows least-time paths
- Wave coherence origin
5. Cosmology & Large-Scale Universe
- Dark matter problem (galaxy rotation curves): Higgs portal coupling to expanding scalar
- Dark matter halo distribution
- Missing mass problem: Higgs mass coupling to expanding scalar field
- Dark energy / cosmic acceleration: mass uncoupling from scalar field, universe freed to expand.
- Cosmological constant problem
- Hubble tension: a combination of void dynamics and Expanse Tension Ripples (ETRs) energy
- Flatness problem
- Horizon problem
- Structure formation efficiency
- Galaxy formation cut-off: A phase transition to mass flowing with expansion with edge shear temperature.
- Void dynamics and lensing: Below low-density threshold triggers accelerated expansion.
- Cosmic microwave background anomalies
- Large-scale structure flows
- Great Attractor phenomenon
- Laniakea supercluster flow: Enhanced mass clumping with rapid growth void dynamics
- Baryon acoustic oscillations origin
- Early galaxy formation timing (JWST tension)
6. Astrophysics & Extreme Environments
- Black hole singularity problem
- Event horizon information paradox
- Black hole interior physics
- Neutron star core behaviour
- Pulsar glitch mechanism
- Extreme gravity behaviour (strong-field regime)
- Gravitational wave origin mechanism
- LIGO/Virgo interpretation of gravity
- Stellar evolution anomalies
- Supernova trigger mechanisms
7. Standard Model & Particle Physics Gaps
- Why particle masses take observed values
- Hierarchy problem
- Fine-tuning problem
- Nature of the Higgs field
- Why coupling constants are fixed
- Origin of charge
- Matter–antimatter asymmetry
- Neutrino mass origin
- Vacuum energy discrepancy
- Unification of forces problem
8. Medium / Substrate / Field-Level Questions
- Absence of physical substrate in standard physics
- Nature of vacuum / “empty space”
- Mechanism behind field interactions
- Propagation mechanism of forces
- Why fields carry energy and momentum
9. Experimental & Observational Anomalies (Solving Science Series)
- Milky Way vertical velocity dispersion anomaly
- SPARC galaxy rotation tight correlation
- Radial acceleration relation (RAR)
- Low surface brightness galaxy dynamics
- Void lensing (defocusing behaviour)
- CERN radial flow / isotropic momentum anomaly
- Water structure anomalies
- Optical reflection paradox experiments
10. Cross-Domain Conceptual Gaps
- Why geometry describes physics so well
- Why mathematics maps to reality
- Disconnection between GR and QM
- Lack of causal mechanism in GR
- Lack of physical realism in QM
- Absence of unified framework across scales






