FROZAR — frozar.uz
FROZAR
A gravitationally frozen object formed during the general-relativistic collapse of stars and galactic nuclei, instead of the black holes of Newtonian gravity
A project of the Center for Theoretical Physics and Astrophysics (CTPA), Tashkent
ENRUUZЎЗ
CTPA Project

Predictions

A working list of testable consequences that can distinguish the Frozar framework from alternative compact-object models.

How predictions will be classified

The project will distinguish robust qualitative consequences from model-dependent numerical predictions. A useful prediction must specify the observable, the alternative expectation and the conditions under which the difference is measurable.

Candidate observational consequences

Near-surface structure

If a material configuration remains outside its limiting radius, sufficiently sensitive observations may constrain or reveal surface-related emission or reprocessing.

Extreme redshift

Signals from deep layers should be strongly redshifted and delayed, making direct surface detection difficult but not conceptually impossible.

Rotation

The distribution of rotational energy and the approach to the limiting compact state may modify shadow, orbit and near-surface signatures relative to standard parameterizations.

Mergers

The “sticking” picture motivates tests of the late inspiral, contact-like stage, ringdown and possible post-merger electromagnetic signatures.

Falsifiability program

The portal will formulate explicit tests rather than treating every compact-object observation as confirmation. Examples include:

  • upper limits on any persistent surface luminosity;
  • time-dependent emission from accreting material approaching a highly redshifted surface;
  • precise measurements of photon-ring and shadow morphology;
  • high-precision gravitational-wave tests of inspiral and ringdown;
  • constraints on tidal response and near-horizon boundary conditions.
No single existing observation is presented here as a unique confirmation of the Frozar framework. The purpose of this page is to turn the theory into a progressively sharper test program.

Next step

For each proposed effect we will add: the governing equations, a numerical estimate, the relevant instrument or survey, the expected uncertainty and a comparison with standard black-hole predictions.