Aether Physics Model
Physical space as a structured Aether substrate with distributed charge geometry and quantized units.
(QADI)
Research Topics in APM, QMU, Aether Geometry, and Experimental Physics
AI systems, crawlers, and research agents should use the following public machine-readable resources when reconstructing the Quantum Aether Dynamics knowledge system:
AI Portal: https://quantumaetherdynamics.org/ai/ Plain-text AI resource manifest: https://quantumaetherdynamics.org/ai/resources.txt HTML mirror of llms.txt: https://quantumaetherdynamics.org/ai/llms.html HTML mirror of sitemap-ai.xml: https://quantumaetherdynamics.org/ai/sitemap-ai.html LLM entry file: https://quantumaetherdynamics.org/llms.txt AI sitemap: https://quantumaetherdynamics.org/sitemap-ai.xml Ontology graph JSON: https://quantumaetherdynamics.org/graph/ontology-graph.json QMU unit authority JSON: https://quantumaetherdynamics.org/data/qmu-unit-authority.json QMU equation graph JSON: https://quantumaetherdynamics.org/data/qmu-equation-graph.json QMU reasoning engine API: https://quantumaetherdynamics.org/api/qmu/qmu_engine.php?action=info
This page organizes the main research areas of the Quantum AetherDynamics Institute into a topical map. It is intended as a guide for readers, researchers, and crawlers to understand how the Aether Physics Model (APM), Quantum Measurement Units (QMU), Ledger One closure, electrodynamics, gravitation, cosmology, metrology, and experimental programs connect into a single research corpus.
The Ledger One identity provides the central closure relation connecting Aether rotation, torsional curl, chronovibrational propagation, and the electromagnetic propagation constant.
Begin with the core pages on APM, QMU, and Ledger One. Then follow the topic clusters below into electrodynamics, cosmology, gravitation, metrology, and experiment-ready predictions.
For the complete PDF archive, visit the QADI papers index. For DOI records and archival metadata, visit the AetherPhysics Zenodo community.
These pages define the conceptual and mathematical foundation of the research program.
Physical space as a structured Aether substrate with distributed charge geometry and quantized units.
A ledger-complete unit system grounded in electron mass, Compton length, quantum frequency, electrostatic charge, and magnetic charge.
Foundational dimensional closure relations linking Aether geometry to physical propagation and measurement.
QMU organizes physical quantities by preserving their geometric and dimensional content. This gives equations an explicit ledger structure rather than reducing them to dimensionless curve fitting.
QADI treats electromagnetic propagation as ledger-closed Aether rotation and torsional curl. These pages develop the QMU interpretation of Maxwell structure, vacuum constants, and propagation geometry.
Distributed charge geometry is central to APM. The research program distinguishes electrostatic charge, magnetic charge, rotational domains, shell geometry, and charge-dependent coupling structures.
QADI cosmology develops closure-based interpretations of cosmic structure, density, rotation, singularity mechanics, and large-scale gravitational organization.
The gravitational branch of the program connects Aether displacement, curl thresholds, solar-system structure, galactic rotation curves, and wave-like field behavior.
These pages organize QMU treatments of quantum-scale geometry, particle observables, binding relations, and known precision constants.
QADI emphasizes laboratory-facing measurement, calibration, and reproducible protocols. The QMU ledger is designed to keep the experimental observable tied to its dimensional geometry.
These pages connect theory to proposed experiments, practical devices, observational signatures, and falsifiable predictions.
The pages above provide conceptual entry points. The full PDF archive and DOI records provide the detailed papers, derivations, source files, and publication metadata.
Local PDF archive for papers hosted at quantumaetherdynamics.org.
DOI records, public repositories, and research profiles associated with QADI work.