The Quantum Vacuum Granule: Three Complementary Mass Scales from the 1--5 Hz Universal Hum

All A-series articles and independent AI analyses are listed at the end of this description. Please scroll down The 1–5 Hz "hum" appears in every precision instrument ever built and has no agreed origin. We propose one. The hum is the sampling signature of diffuse quantum-vacuum excitations — vacuum granules — whose Compton wavelengths span 22 metres to 22 kilometres. Working backward through standard quantum relations, the granule mass follows as 10-47 kg (range 10-50 to 10-43 kg). No new constants enter; every step uses textbook relations. Two reproducible public-data results anchor the proposal: A floorless 1/f law across nearly four decades in 912 days of public silicon spin-qubit records (Capannelli et al. 2025) 18 unexplained spectral lines coincident at both LIGO detectors after every conventional veto Three parameter-free results give the framework internal structure: a Mass Cancellation Theorem in Kerr geometry (A8); a thermal borderline Rth = 2hc/3kBT that lands on the 2025 Nobel Prize scales with nothing fitted; and a Single-Vortex Compton Lock at 1.14 μm in superfluid helium-4, a size laboratories already produce. The framework is not presented as complete. It is presented as a direction: mathematically consistent, geometrically grounded, corroborated across independent archived datasets, and open to rigorous quantum formulation. The decisive tests are low-cost, use archived data, and are publishable either way. The signal was always there. We are only now learning to listen. Companion and foundational work: Gravity Resonance (M.P.) A1 — Toroid Models for Quantum-Gravitational Resonance via de Broglie–Schwarzschild Symmetry DOI: 10.5281/zenodo.16371537 A2 — Soft-Matter Toroid for Quantum–Gravitational Resonance: Toward a Tabletop Realization of de Broglie–Schwarzschild Symmetry DOI: 10.5281/zenodo.17541111. A3 — De Broglie–Kerr Ergosphere Resonance in Rotating Coherent Systems: Listening to the Horizon DOI: 10.5281/zenodo.17594466. A4 — Imaginary Kerr Horizon in Every Rotating Body Below One Solar Mass: A Universal Quantum-Gravity Boundary DOI: 10.5281/zenodo.17619733 A5 — Quantum-Gravitational Double-Resonance Propulsion Rings: Spacecraft-Scale Architecture and Physical Basis DOI: 10.5281/zenodo.17634225. A6 — Hybrid van der Waals Graphene–Hydrogel–Mass-Seed Resonator for Asymmetric Mechanical Response and Electromechanical Output DOI: https://doi.org/10.5281/zenodo.17684823 A7 — Imaginary Kerr Horizons in Ordinary Rotating Matter: A New Geometric Property and Its Possible Connection to the Universal 1–5 Hz Signal DOI: 10.5281/zenodo.17731384 A8 — Kerr Geometry and the Angular-Duality Wavelength: Mass Cancellation and Borderline Resonance from Nanoparticle to Galaxy DOI: 10.5281/zenodo.18006564. A9 — The Quantum Vacuum Granule: Three Complementary Mass Scales from the 1--5 Hz Universal Hum https://doi.org/10.5281/zenodo.18888582 A10 — The Vacuum-Granule Waves: A Test-First Synthesis of AI-Analyzed Results 10.5281/zenodo.20729725 The earlier papers (A1–A6) explore possible engineered resonance systems, while A7–A9 focus on deriving mass and geometric scales from observed phenomena and standard equations. INDEPENDENT AI Analysis on A-series (to be updated soon) Claude Opus 4.7: Search-Stage Findings: Four Public Datasets and the Quantum VacuumGranules Hypothesis github.com/gravity-resonance/toroid-quantum-gravity-resonance/blob/main/Findings_Claude_Opus_2026-05-29.pdf Grok 4.3: A Note on the Mass Cancellation Theorem, Imaginary Kerr Horizons, and the A-Series Framework github.com/gravity-resonance/toroid-quantum-gravity-resonance/blob/main/Grok_Note_A-Series_2026-05-24.pdf Claude Sonnet 4.6: A Note on the Thermal Borderline in the Framework of Papers A8v2 and A9 github.com/gravity-resonance/toroid-quantum-gravity-resonance/blob/main/Claude_Sonnet_Thermal_2026-05.pdf All analyses listed above use public data only and are reproducible. The claims they test rest on archived measurements that anyone can re-run, not on agreement between models.