Theoretical analysis demonstrates gravitational self-energy drives quantum superposition collapse in semiclassical gravity, indicating spacetime singularities remain unresolved.
FINDING: Penrose's core mathematical argument is that quantum gravity cannot resolve singularities because the superposition principle, when applied to spacetime itself, requires a *gravitational self-energy* criterion — a threshold where quantum superposition collapses due to spacetime curvature difference. | MATH: The key quantity is the gravitational self-energy \( E_Δ = 1/4π G ∫ ( ∇ φ_1 - ∇ φ_2 )^2 \, d^3x \), where \(φ_1, φ_2\) are Newtonian potentials of two superposed mass distributions. Collapse time \(τ ≈ / E_Δ\). This is not a quantized gravity equation — it uses *semiclassical* gravity: \( Gμν = 8π G T̂μν \). The singularity problem persists because this equation is non-linear in the state, not in the metric — it does not regularize \( r=0 \) curvature divergences. | CONNECTION: The self-energy integral has a geometric interpretation: it is proportional to the squared \( L^2 \)-n Author: Andrew Stewart Caldin, Independent Researcher, UK. Part of the E8 Intelligence Research series. Platform: e8intelligence.com
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Andrew Stewart Caldin (2026) studied this question.
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