Research roadmap

The highest-value next tests are concrete and measurable

The theory is most valuable if it can move from coherent structure to falsifiable workflow: stronger dynamics, tighter observational fits, and a clearer microscopic derivation.

Research focus
Singularity prevention with a GR-like exterior
Core mechanism
Saturating response plus field-driven anisotropic stress
Observable angle
Mass-independent core ringing scale
Open question
Whether full dynamical collapse settles into the regulated state
Roadmap

Four priorities for the next phase

Each step either sharpens the theory's predictive power or clarifies where it could fail, which is exactly what a serious gravity program needs.

4
Section

Research agenda

Step 01 — Run full relativistic collapse simulations

Move from static structure and partial collapse evidence to fully dynamical numerical evolution in the strong-field regime.

Step 02 — Stack LIGO residuals across events

Search for a weak mass-independent component that standard ringdown templates would miss or average away.

Step 03 — Estimate photon-ring deviations

Quantify how a saturated, finite core could subtly change near-horizon imaging signals without spoiling the exterior geometry.

Step 04 — Deepen the entanglement derivation

Clarify whether χ can be rigorously derived as a coarse-grained displacement of correlation structure rather than only interpreted that way.

Why these matter

What progress would look like

The goal is not to decorate the idea with more speculation. It is to turn the current structure into a theory that either earns confidence through contact with data or fails clearly where it should.

Near-term wins

  • Demonstrate whether collapse halts dynamically rather than only in static solutions.
  • Constrain ρ_max or related parameters from existing gravitational-wave archives.
  • Show which black-hole imaging signatures remain small enough to respect present observations.

Longer-term payoff

  • A successful program would provide a finite-core alternative to singular black holes.
  • It could connect macroscopic gravity modification with microscopic entanglement structure.
  • It would offer a rare combination of conceptual motivation and observational hooks.
Project abstract

A concise framing of the work as it stands today.

This site presents the current structure of the theory as a research program: a bounded-response modification of gravity with clear open questions and concrete targets for falsification.