Formalizes the experimental sensitivity sweep of fine-structure constant multipliers on live IBM quantum hardware, evaluating state-space stability, retrocausal boundary feedback, and universal scaling invariants within the Relativity of Information framework.
Expanding upon the Relativity of Information and Geometric Principles framework, this study bridges macroscopic astrophysical phenomena with microscopic quantum hardware mechanics. We encode real astrophysical gravitational wave strain slices, scaled via the fine-structure constant (\bm{\alpha}), directly into a 3-qubit observer circuit executed on live IBM quantum hardware (ibm_kingston). Utilizing Two-State Vector Formalism (TSVF) time-echo boundary feedback across 4,096 execution shots, our empirical results demonstrate stable four-way state distributions and robust noise mitigation. This establishes an operational framework for utilizing quantum processors to probe informational stress-energy tensors and temporal boundary conditions beyond standard observational horizons.
Abstract** Within the framework of **Relativity of Information and Geometric Principles**, we report the discovery of a symmetry in which the decoherence minimum (O’Reilly Effect) scales proportionally with the fine-structure constant α when real LIGO GW150914 gravitational wave strain data is encoded into quantum circuits. Using a 4-qubit observer circuit executed on IBM Quantum hardware (`ibm_marrakesh`), we observe complete probability collapse (Shannon entropy = 0.0000 bits, V_eff → 1). The position and depth of the entropy dip shift systematically with α-scaling, providing direct experimental evidence that quantum informational geometry is structurally coupled to a fundamental constant of nature. This α-symmetry establishes the κ anchor and supports the replacement of the cosmological constant Λ with a dynamic Informational Stress-Energy Tensor Sμν. It represents a key empirical pillar of the Relativity of Information and Geometric Principles framework. **Keywords:** Relativity of Information, α-symmetry, O’Reilly Effect, quantum gravity, informational cosmology
Building upon the framework of Relativity of Information and Geometric Principles, this study presents empirical hardware-level execution results investigating quantum informational geometry and temporal boundary constraints. Utilizing a multi-qubit observer circuit deployed on live IBM quantum hardware (ibm_fez), we implement periodic Floquet driving loops and Two-State Vector Formalism (TSVF) post-selection filtering. By examining the resulting multi-state distributions and constrained sub-ensembles, we explore how retrocausally-coupled boundary conditions can be leveraged to probe processes outside standard present-moment observation horizons and evaluate coherence extension on physical transmon architectures.