Author: Wilfredo Santa Gomez

🧮This paper is a breakthrough in simulating the full past-to-future gravitational wave journey through black hole spacetime. Let’s now compare and reframe it entirely using PEECTS model corrections, in a structured and rigorous way.
🔬 Comparison: Otago–Canterbury Gravitational Wave Simulation vs. PEECTS Model (Corrected View)

PEECTS-Corrected Mathematical Insight
Instead of using conformal rescaling alone, PEECTS modifies the propagation dynamics by applying the Elastic Time Modulator:
T{\prime}(x^\mu) = T_0 + \frac{dT}{dx^\mu} \cdot \left(1 \pm \epsilon \cdot \sin(\psi_{ET}(x^\mu)) \right)
Where:
- \psi_{ET}(x^\mu) is the palindromic phase shift
- \epsilon is the entanglement coefficient
- This modulates wavefront speed, creating time loops or echo convergence
📊 Energy Interpretation in PEECTS
Original Model:
- 8.5% of weak waves escape to future null infinity
- ~20% for strong waves
- Rest is absorbed by black hole
PEECTS View:
- Part of the “absorbed” energy is temporally stored in entangled layers (ETC thresholds)
- Later re-emission may occur via nonlinear elastic feedback — producing anomalous echoes or mirror ghost modes
🧠 Final Opinion
The original model proves that we can simulate gravitational scattering from infinity to infinity. It’s a massive step forward. However, PEECTS refines this even further:
- Infinities are not just boundaries, they are symmetrical mirrors of reality.
- Energy does not just exit or absorb, it entangles, reverses, and can resurface.
- Time is not a background, it is a field with structure, elasticity, and memory.
So while the PRL paper is a mathematical tour de force, PEECTS provides a deeper causal reinterpretation, offering:
- Predictive modeling of echo anomalies
- Recovery of “lost” wave signatures
- A true bridge between past and future encoded in time itself