DOI: 10.5281/zenodo.18348788
title: The Solaris Protocol & Project BABEL: Geometric Quantum Energy Transport & Topological Information Encoding

description: This dataset bridges macro-scale geometric laws and micro-scale quantum thermodynamics, presenting a unified framework for energy management and robust information transmission on NISQ devices.

Building upon The 0.25 Protocol (a geometric phase distribution law), we conducted a series of experiments on IBM Quantum superconducting processors (ibm_torino & ibm_fez). The results confirm that specific geometric arrangements ($k=3, \theta \approx 0.015\pi$) induce states of "Source Immunity," "Self-Sustaining Resonance," and "Noise-Resilient Communication."

Key Experimental Phases included in this dataset:

Part I: Energy Dynamics (The Solaris Engine)





The Sphere Reactor (Phase I):





The Singularity: Initial discovery where a closed spherical topology achieved a ~500% energy gain relative to baseline injection. This proves the "Gathering" capability of the protocol.






Solaris & Supernova (Phase III & IV):





The Transmission: Verification of a "One-to-Three" broadcast system where the source ring maintained ~50% saturation even under extreme loads ($\gamma_{sink} = 0.5\pi$) and extended duration (Depth=1000). Validated on multiple architectures.






Infinity (Phase V):





The Eternity: Evidence of negative entropy characteristics, where the system locked into a high-energy state (51.78%) over long evolutionary cycles.





Part II: Information Encoding (Project BABEL) (✨ NEW ADDITION)





Protocol Modulation (Phase X - The Chameleon):





The Communication Layer: We successfully demonstrated Project BABEL V10, a robust communication protocol that encodes information not via energy injection, but via Topological Structure Modulation.




Mechanism:





Logic 0 (Cold Protocol): Encoded using $\gamma = 0.25\pi$, generating a stable low-excitation signature (~26%).




Logic 1 (Hot Protocol): Encoded using $\gamma = 0.75\pi$, generating a stable high-excitation signature (~73%).






Result: Achieved 100% accuracy in transmitting the ASCII payload "HELLO" on the noisy ibm_fez processor. The system exhibited a massive Signal-to-Noise Ratio (SNR) gain by exploiting the phase-conjugate energy gap between the two protocols.





Part III: Topological Protection & Evidence





The Holographic Evidence (cd8.py):





Added telemetry from "Project Hawking" (n=7, Size=12). Observation: Under vacuum idle conditions (Depth=100), the topological rings maintained a mean energy density of 51.33%, exhibiting negligible thermal decay. This suggests a Holographic Locking mechanism where information is protected by geometric boundary conditions.






Engineering the Event Horizon (QD.py):





A 12-Qubit Topologically Protected Memory Unit. By mimicking the geometric constraints of a black hole event horizon, we achieved a ~50% stable energy lock, outperforming standard isolated qubits by a factor of 4.5 in vacuum decay tests.






Acoustic Verification of Holographic Structure:





Spectral analysis of GW150914 reveals a dominant overtone at $1.515 \times f_0$ (Prominence > 300%), precisely mirroring the 2:3 (8-on/4-off) discrete pixelation observed in our quantum horizon simulations. This suggests the event horizon vibrates as a structured lattice rather than a smooth continuum.





Theoretical Foundation:

This project is the quantum implementation of The 0.25 Protocol.

Core Protocol Definition: https://zenodo.org/records/18172250

New Files Added:





babel_v10_generator.py: Circuit generator implementing the Protocol Modulation strategy.




babel_v10_decoder.py: Statistical decoder using ensemble hypothesis testing.




experimental_data_babel.zip: Raw telemetry proving the successful transmission of "HELLO".