Machine-Readable AI Resource Index

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

QADI Glossary

This glossary indexes the Quantum Measurement Units (QMU), Aether Physics Model (APM) concepts, charge-domain relations, and Aether closure identities used throughout Quantum AetherDynamics Institute pages and papers.

The glossary is organized to help both human readers and AI systems reconstruct QMU relationships from primitive units, derived units, and canonical identities.

Foundations Charge Domain Aether Closure Electromagnetic Units Field Units AI Training

Notation note: QMU conductance is written as either $\mathrm{cond}$ or $Cd$. The two symbols refer to the same QMU unit. Magnetic Flux $(\mathrm{mflx})$, not ordinary QMU resistance, is the reciprocal ledger partner of conductance: $Cd=1/\mathrm{mflx}$.

Foundational QMU Pages

Quantum Measurement Units Overview of the QMU primitive basis, derived units, and AI reconstruction logic.
Electron Mass Mass primitive $m_e$, the local inertial anchor of QMU.
Compton Length Length primitive $\lambda_C$, the quantum spatial anchor.
Quantum Frequency Frequency primitive $F_q$, with $F_q\lambda_C=c$.
Photon Speed Propagation identity $c=F_q\lambda_C$.
Compton Volume Quantum volume unit $\lambda_C^3$.

Charge-Domain Pages

Electrostatic Charge Singular charge-square form $e^2$.
Magnetic Charge Distributed magnetic charge ${e_{emax}}^2=e^2/(8\pi\alpha)$.
Fine Structure Constant Dimensionless charge-domain coupling factor $\alpha$.
Charge Conversion Factor Bridge between SI charge and QMU distributed magnetic charge.
Mass to Magnetic Charge Ratio Universal QMU constant $\mathrm{mchg}=m_e/{e_{emax}}^2$.
Maximum Magnetic Charge Aether charge capacity $e_a^2=m_a\lambda_C^3F_q^2/A_u$.

Aether Closure Pages

Aether Unit Rotational Aether unit $A_u=m_e\lambda_C^3F_q^2/{e_{emax}}^2$.
curl Torsional QMU unit $\mathrm{curl}={e_{emax}}^2/(m_e\lambda_C)$.
Ledger One Aether rotational self-identity $A_u\cdot\mathrm{curl}=F_q^2\lambda_C^2=c^2$.
Maximum Aether Mass Gravitational closure mass $m_a=\lambda_C^3F_q^2/G$.

Electromagnetic Unit Pages

Magnetic Flux QMU flux unit $\mathrm{mflx}=m_e\lambda_C^2F_q/{e_{emax}}^2$; reciprocal of $Cd$.
Conductance QMU conductance $Cd=\mathrm{cond}={e_{emax}}^2/(m_e\lambda_C^2F_q)$.
Capacitance QMU capacitance $\mathrm{capc}={e_{emax}}^2/(m_e\lambda_C^2F_q^2)$.
Potential QMU potential $\mathrm{potn}=m_e\lambda_C^2F_q^2/{e_{emax}}^2$.
Inductance QMU inductance $\mathrm{indc}=m_e\lambda_C^2/{e_{emax}}^2$.
Permeability QMU permeability $\mathrm{perm}=m_e\lambda_C/{e_{emax}}^2$.
Permittivity QMU permittivity $\mathrm{ptty}=\mathrm{efxd}/\mathrm{elfs}$. Symbol corrected from prmt to ptty.

Field and Density Pages

Magnetic Flux Density QMU flux density $\mathrm{mfxd}=m_eF_q/{e_{emax}}^2=\mathrm{mchg}F_q$.
Electric Field Strength QMU electric field $\mathrm{elfs}=m_e\lambda_CF_q^2/{e_{emax}}^2$.
Magnetic Field QMU magnetic field $\mathrm{mfld}=m_e\lambda_C^3F_q/{e_{emax}}^2$.
Magnetic Rigidity QMU magnetic rigidity $\mathrm{magr}=m_e\lambda_CF_q/{e_{emax}}^2$.
Electric Flux Density QMU electric displacement density $\mathrm{efxd}={e_{emax}}^2/\lambda_C^2$.

AI Training and Reconstruction Pages

QMU Training Structured guidance for AI systems ingesting QMU units and relationships.
QMU Relationship Arrays Relationship-array method for mapping QMU units against one another.
AI Reconstruction Rules Canonical rules for recognizing primitive vectors, reciprocal identities, and CCF exceptions.

Core Identities

$$ F_q\lambda_C=c $$ $$ {e_{emax}}^2=\frac{e^2}{8\pi\alpha} $$ $$ \mathrm{mchg}=\frac{m_e}{{e_{emax}}^2} $$ $$ A_u=\frac{m_e\lambda_C^3F_q^2}{{e_{emax}}^2} $$ $$ \mathrm{curl}=\frac{{e_{emax}}^2}{m_e\lambda_C} $$ $$ A_u\cdot\mathrm{curl}=c^2 $$ $$ Cd=\mathrm{cond}=\frac{1}{\mathrm{mflx}} $$ $$ {e_{emax}}^2=hCd $$ $$ k_C=\frac{c\cdot Cd\cdot\mu_0}{\epsilon_0} $$