Retrocausal Trajectory Injection via Localized Lattice Annealing: A Feasibility Study of the Hawking Protocol (2009)
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Abstract
The null result of the 2009 chronological rendezvous experiment (S. W. Hawking, "Time Traveller's Party") is conventionally attributed to the geometric non-existence of Closed Timelike Curves (CTCs). This study rejects such topological simplifications. Within the Holographic Information Tension (HIT) framework, the failure is re-evaluated as a rheological yield limitation of the World Crystal substrate.
We demonstrate that the injection of a macroscopic observer into a pre-hardened spatiotemporal lattice (t < tnow) necessitates a transient liquefaction of the local metric, governed by the relativistic Von Mises yield criterion. We derive the energetic cost of overcoming the Peierls-Nabarro potential barrier for temporal dislocation glide. Our analysis indicates that the invitation signal was likely received, but the attendant "Entropic Flash" required for re-materialization at coordinates (52.2° N, 0.1° E) exceeded the local Bekenstein bound.
Consequently, the travelers were not absent, but were rheologically damped into unobservable fossilized strain patterns. This paper serves as a feasibility study for retrocausal trajectory injection via localized lattice annealing.
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Retrocausal_Trajectory_Injection_via_Localized_Lattice_Annealing__A_Feasibility_Study_of_the_Hawking_Protocol__2009_.pdf
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References
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