The Solaris Protocol: Load-Independent Energy Transport & The 500% Gain Sphere Reactor

This dataset creates a bridge between macro-scale geometric laws and micro-scale quantum thermodynamics. 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 a state of "Source Immunity" and "Self-Sustaining Resonance." Key Experimental Phases included in this dataset: The Sphere Reactor (Phase I): The Singularity: The 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. The Holographic Evidence :cd8.py cd8_rawdataAdded 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 the geometric boundary conditions. Engineering the Event Horizon:QD.py QD_rawdata.zip A 12-Qubit Topologically Protected Memory Unit (Abstract: 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 x $f_0$ (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本数据集搭建了宏观尺度几何规律与微观尺度量子热力学之间的桥梁。 本研究以0.25协议（The 0.25 Protocol，一种几何相位分布规律）为基础，在IBM Quantum超导处理器（ibm_torino与ibm_fez）上开展了一系列实验。实验结果证实，特定的几何排布（k=3，θ≈0.015π）可诱导出「源免疫」与「自持续共振」状态。 本数据集包含以下核心实验阶段： 球形反应堆（Phase I）： 奇点（Singularity）：首次观测到闭合球形拓扑结构相较于基准注入能量提升约500%，验证了该协议的「汇聚（Gathering）」能力。 索拉里斯与超新星（Phase III & IV）： 信号传输（Transmission）：验证了「一对三」广播系统——即使在极端负载（γ_sink=0.5π）与长时长（演化深度=1000）条件下，源环仍保持约50%的饱和率，该结果已在多架构平台上得到验证。 无限（Phase V）： 永恒（Eternity）：观测到负熵特征——系统在长期演化周期中锁定于高能量状态（占比51.78%）。 全息证据（Holographic Evidence）：cd8.py、cd8_rawdata 加入了「霍金计划（Project Hawking）」的遥测数据（n=7，样本量=12）。观测结果：在真空闲置条件下（演化深度=100），拓扑环的平均能量密度维持在51.33%，热衰减可忽略不计。这表明存在「全息锁定」机制，信息通过几何边界条件得到保护。 工程化事件视界：QD.py、QD_rawdata.zip 构建12量子比特拓扑保护存储单元（摘要：通过模拟黑洞事件视界的几何约束，我们实现了约50%的稳定能量锁定，在真空衰减测试中性能比标准孤立量子比特高出4.5倍。） 全息结构的声学验证：对GW150914的频谱分析显示，其存在主频为1.515×f₀的主导泛音（突出度>300%），与我们在量子视界模拟中观测到的2:3（8通/4断）离散像素化特征完全吻合。这表明事件视界以结构化晶格形式振动，而非平滑连续体。 理论基础： 本项目是0.25协议的量子化实现。 核心协议定义：https://zenodo.org/records/18172250