Gravitational Field Dynamics of a Macroscopic Quantum Information Phase Transition

We present a rigorous derivation of the gravitational field dynamics resulting from the decoherence of
a macroscopic biological quantum state. Operating under the Mass-Energy-Information Equivalence
Principle, we model the biological system not as a classical assembly of particles, but as a reservoir
of bound information mass governed by a specific Equation of State (EOS). We demonstrate that
the decoherence event—interpreted here as a thermodynamic phase transition from a zero-pressure
“information fluid” to a relativistic radiation fluid—induces a discontinuity in the system’s stressenergy
tensor Tμν. Solving the linearized Einstein Field Equations for this transition, we find that
the resulting “pressure shock” acts as a source term for a distinct, high-frequency gravitational
pulse. This result implies that the conservation of information necessitates a gravitational signature
distinct from classical thermal decay, providing a falsifiable prediction for the detection of non-local
biological states via near-field atom interferometry.