Projnowean Quantum Gravity framework: supported by high significance multimessenger evidence

Abstract

The Projnowean Quantum Gravity (PQG) framework introduces a triple‑pipeline system designed to test for Planck‑scale dispersion effects across independent physical sectors. The model assumes that quantum‑gravity induces small, energy‑dependent corrections to relativistic propagation, represented by a modified dispersion relationE² = p²·c² + m²·c⁴ + δ_QG(E) with scalingδ_QG(E) ∝ (E / E_Pl)ⁿ.These corrections accumulate over long baselines or high energies, enabling detection in astrophysical and collider environments.The first pipeline analyzes gravitational‑wave signals. Using the full GWTC‑4.1 catalog, the pipeline reports a 25.1σ propagation‑level deviation, later strengthened to 31.9σ on the expanded GWTC‑5.0 dataset (484 events). The analysis extracts arrival‑time residuals Δt(E) and frequency‑dependent phase shifts Δφ(f), revealing a consistent non‑zero dispersion parameter across the entire catalog.The second pipeline evaluates high‑energy photon timing using Fermi/LAT data. A reduced eight‑event timing set yields a 3.79σ deviation from standard propagation, based on energy‑dependent delays Δt(E) in transient gamma‑ray signals. Although the photon channel is statistically weaker than the gravitational‑wave sector, the extracted PQG parameters remain compatible within uncertainties.The third pipeline examines proton–proton dijet spectra in the ATLAS QCD sector. Preliminary results indicate a 13.75σ deviation from Standard Model Monte Carlo baselines in the high‑mass tail of the dijet distribution. This channel is still under active development, and the author notes that systematic or methodological issues may remain; nevertheless, the emerging pattern aligns with the propagation‑based PQG signature observed in the other pipelines.Together, the three pipelines form a coherent multi‑sector test of Planck‑scale phenomenology. The gravitational‑wave, photon‑timing, and collider channels independently point toward a consistent dispersion‑like deviation, with cross‑channel agreement in the inferred PQG parameters {n, α_QG}. All datasets, scripts, and analysis workflows are openly released, enabling full reproducibility and independent verification. The PQG triple‑pipeline demonstrates how diverse physical channels can jointly probe subtle quantum‑gravity effects within currently available public data.