Macroscopic Superfluid Cosmology Framework: Foundational Axiomatics, Topological Telemetry, and Hydrodynamic Quantization of Cosmic Structures

Abstract: This submission documents the comprehensive development of the Macroscopic Superfluid Cosmology Framework (MSCF), a rigorous paradigm shift that reformulates the cosmic vacuum as a zero-viscosity, macroscopic Bose-Einstein Condensate (BEC) governed by fundamental topological invariants. Addressing critical methodological gaps in current models—specifically the Cosmological Constant Problem and the Hubble Tension—this work establishes a strictly falsifiable framework grounded in gauge field topology and quantum hydrodynamics. Research Suite Composition: This dataset and documentation suite comprises the following interconnected research volumes: The Institutional Edition (Foundational Framework): Provides the axiomatic closure of the framework, detailing the physical mechanisms of the 144 Hz primordial background resonance, topological phase-shift birefringence, and the antimatter-as-defect hypothesis. The Dynamic Telemetry Tensor (Technical Supplement): Formalizes the Hydrodynamic Context Variables from first principles. It introduces the GalacticHydroEngineV14 computational architecture, demonstrating deterministic, blinded reproducibility against high-fidelity datasets (JWST, EHT, MAST, Planck). Great Attractor Node Quantization (Version 20. 1): An empirical application of the MSCF predicting bulk flow velocity and lensing coefficients within the Great Attractor region, validated against multi-mission survey catalogs. Methodological Rigor & Falsifiability: Unlike phenomenological models reliant on post-hoc parameter fitting, the MSCF utilizes a Generative Signal Reconstruction Protocol. Mathematical waveforms were derived strictly from first-principles constants (0. 2225, 0. 0200) and compared against observed astronomical data in a blind simulation environment. The framework offers a definitive, out-of-sample falsifiable test via next-generation CMB B-mode polarization measurements (CMB-S4). We predict discrete, harmonic overtones at specific multipoles (=144, 288, 432), which would confirm the BEC lattice structure. Computational Reproducibility: All structural invariants and telemetry data presented herein are derived using standard astrophysical libraries (Astropy). The framework is designed for transparency, allowing the global physics community to independently verify the numerical stability guards and the inversion dynamics at the topological defect boundaries. Computational Architecture & Reproducibility Statement: "This manuscript formalizes the GalacticHydroEngineV14 computational architecture, establishing a deterministic framework for macroscopic superfluid simulations. The logical implementation is explicitly designed for Python-based computational environments—leveraging standardized astrophysical libraries (such as Astropy) —to ensure full transparency, deterministic reproducibility, and rigorous empirical falsifiability. By providing the structural invariants and hydrodynamic context variables from first principles, this framework allows the research community to independently replicate the blinded simulation protocols against high-fidelity datasets (JWST, EHT, MAST, Planck).