TAIB Stress-Testing: Latency, Saturation, and Operational Limits

The Applied Base Information Theory (TAIB) proposes an operational framework that mod-els cosmological and quantum phenomena based on information flows and latencies of theuniverse’s fundamental “bus”. This study presents a comprehensive testing framework –theTAIB Stress-Test– designed to evaluate the consistency and predictive power of the theoryin comparison with General Relativity (GR), the ΛCDM model, and conventional quan-tum mechanics. Five main tests are implemented: Kerr deflection, cosmic void evolution,informational Shapiro delay, N-qubit system decoherence, and parity saturation due to com-plexity. Each test produces quantitative metrics of prediction (∆Pred %), bus saturation(σ), latency jitter, and computation time, demonstrating that TAIB can reproduce classi-cal effects with engineering-level precision and provide falsifiable predictions at scales wherestandard physics shows limitations. Simulations run in real time (<1 ms per test), showingremarkable operational efficiency. The results suggest that TAIB not only offers a coher-ent and verifiable model but also opens an experimental path to test fundamental limits ofquantum coherence and cosmological dynamics through novel observables. This work con-stitutes a technical and operational extension of the TAIB theoretical framework previouslyintroduced in Ref. [https://doi.org/10.5281/zenodo.18171045], to which the present resultsare explicitly anchored