Abstract. We present the Gravity as Collapse (GAC) model, a unified framework where gravity, time, and spacetime emerge from quantum collapse. The scalar curvature is \(R = -8\pi G \rho_C\), where \(\rho_C\) is collapse density. At Planck cores, \(\rho_C = 0\), yielding \(R = 0\) — eliminating singularities. The Planck scale is a collapse cutoff, not a density limit. Black hole cores are timeless voids; the Big Bang is the first collapse front. Information is preserved. We derive singularity-free metrics, resolve the information paradox, and propose falsifiable tests via LIGO, Hawking analogs, and BMV/QGEM. This model rewrites the foundations of physics without quantizing gravity.
Define collapse density as the rate of quantum-to-classical transitions:
The scalar curvature is:
Thus, curvature exists only where collapse has occurred.
Proper time advances only with collapse:
No collapse → no time → no spacetime.
At \( r < r_P = \sqrt{\frac{\hbar G}{c^3}} \), quantum superposition dominates:
The Planck scale is the boundary of spacetime.
Theorem. Spacetime admits no curvature singularity.
Proof.
Figure 1: Black hole structure in Gravity as Collapse. No singularity.
Matter collapses at the Planck shell. No information enters \( r < r_P \). Hawking radiation carries collapse history. Information preserved.
Pre-Bang: \(\rho_C = 0\) → \(R = 0\). The Big Bang is the first collapse front.
| Experiment | Prediction |
|---|---|
| LIGO | No infinite ringdown |
| Hawking analogs | Radiation from Planck shell |
| BMV/QGEM | No pre-collapse gravity |
Spacetime singularities are not physical entities but regions of zero collapse density below the Planck boundary. The Planck scale functions as a fundamental cutoff rather than a density limit. Within this framework, spacetime emerges dynamically from the process of quantum collapse, governed by the relation \( R = -8\pi G \rho_C \). This model offers a unified, experimentally testable resolution to longstanding issues in gravitational physics.