Table of Constants and Units
Constants
| Aether / Particle Masses | |||
|---|---|---|---|
| Aether Mass | Electron Mass | Proton Mass | Neutron Mass |
| \( m_{a}=3.268\times 10^{15}\,\mathrm{kg} \) | \( {m_{e}}=9.109\times 10^{-31}\,\mathrm{kg} \) | \( {m_{p}}=1.673\times 10^{-27}\,\mathrm{kg} \) | \( {m_{n}}=1.675\times 10^{-27}\,\mathrm{kg} \) |
| Magnetic Charges | |||
| Aether Magnetic Charge | Electron Magnetic Charge | Proton Magnetic Charge | Neutron Magnetic Charge |
| \( {e_a}^{2}=5.021\times 10^{8}\,\mathrm{coul}^{2} \) | \( {e_{emax}}^{2}=1.410\times 10^{-37}\,\mathrm{coul}^{2} \) | \( {e_{pmax}}^{2}=2.570\times 10^{-34}\,\mathrm{coul}^{2} \) | \( {e_{nmax}}^{2}=2.573\times 10^{-34}\,\mathrm{coul}^{2} \) |
| Fine Structures | |||
| Aether Fine Structure | Electron Fine Structure | Proton Fine Structure | Neutron Fine Structure |
| \( a= 2.034\times 10^{-48} \) | \( \alpha=7.297\times 10^{-3} \) | \( p=3.974\times 10^{-6} \) | \( n=3.969\times 10^{-6} \) |
| Core QMU Constants | |||
| Electrostatic Charge | Compton Wavelength | Quantum Frequency | Length Density Constant |
| \( e^{2}=2.567\times 10^{-38}\,\mathrm{coul}^{2} \) | \( {\lambda_C}=2.426\times 10^{-12}\,\mathrm{m} \) | \( {F_q}=1.236\times 10^{20}\,\mathrm{Hz} \) | \( ldns_{0}=1.347\times 10^{27}\,\dfrac{\mathrm{kg}}{\mathrm{m}} \) |
| Aether/EM/Gravity Constants | |||
| Aether Unit Magnetic Constant | Coulomb Electrostatic Constant | Newton Gravitational Constant | Gforce |
| \( A_{u}=1.419\times 10^{12}\,\dfrac{\mathrm{kg}\cdot \mathrm{m}^{3}}{\mathrm{s}^{2}\cdot \mathrm{coul}^{2}} \) | \( k_{C}=8.988\times 10^{9}\,\dfrac{\mathrm{kg}\cdot \mathrm{m}^{3}}{\mathrm{s}^{2}\cdot \mathrm{coul}^{2}} \) | \( G=6.673\times 10^{-11}\,\dfrac{\mathrm{m}^{3}}{\mathrm{kg}\cdot \mathrm{s}^{2}} \) | \( \mathrm{Gforce}=1.210\times 10^{44}\,\mathrm{N} \) |
| Derived EM Constants | |||
| Speed of Photons | Conductance Constant | Permeability Constant | Permittivity Constant |
| \( c=2.998\times 10^{8}\,\dfrac{\mathrm{m}}{\mathrm{s}} \) | \( Cd=2.112\times 10^{-4}\,\dfrac{\mathrm{s}\cdot \mathrm{coul}^{2}}{\mathrm{kg}\cdot \mathrm{m}^{2}} \) | \( \mu_{0}=1.257\times 10^{-6}\,\dfrac{\mathrm{H}}{\mathrm{m}} \) | \( \epsilon_{0}=8.854\times 10^{-12}\,\dfrac{\mathrm{F}}{\mathrm{m}} \) |
Electromagnetic Field and Interaction Units
Dynamic Units
| 1. Rotating Magnetic Field 2. Aether Unit 3. Electron Flux | Magnetic Field | Magnetic Volume |
|---|---|---|
| \( A_u = 16\pi^{2} \) | \( \mathrm{mfld} = \dfrac{16\pi^{2}\,{\lambda_C}}{c} \) | \( \mathrm{mvlm} = \dfrac{16\pi^{2}\,{\lambda_C}^{2}}{c} \) |
| 1. Electric Potential 2. Electromotive Force | Magnetic Flux | Inductance |
| \( \mathrm{potn} = \dfrac{16\pi^{2}}{{\lambda_C}} \) | \( \mathrm{mflx} = \dfrac{16\pi^{2}}{c} \) | \( \mathrm{indc} = \dfrac{16\pi^{2}\,{\lambda_C}}{c^{2}} \) |
| Electric Field Strength | 1. Magnetic Rigidity 2. Magnetic Velocity | Permeability |
| \( \mathrm{elfs} = \dfrac{16\pi^{2}}{{\lambda_C}^{2}} \) | \( \mathrm{magr} = \dfrac{16\pi^{2}}{c\,{\lambda_C}} \) | \( \mathrm{perm} = \dfrac{16\pi^{2}}{c^{2}} \) |
| 1. Diverging Electric Field 2. Surface Tension Charge 3. Magnetic Resonance | Magnetic Flux Density | 1. Magnetism 2. Mass to Charge Ratio |
| \( \mathrm{dvef} = \dfrac{16\pi^{2}}{{\lambda_C}^{3}} \) | \( \mathrm{mfxd} = \dfrac{16\pi^{2}}{c\,{\lambda_C}^{2}} \) | \( \mathrm{mchg} = \dfrac{16\pi^{2}}{c^{2}\,{\lambda_C}} \) |
Substrate Units
| Permittivity | Magnetic Flux Intensity Ratio | Magnetic Field Exposure |
|---|---|---|
| \( \mathrm{ptty} = \dfrac{1}{16\pi^{2}} \) | \( \mathrm{mfir} = \dfrac{c}{16\pi^{2}\cdot {\lambda_C}} \) | \( \mathrm{mfde} = \dfrac{c}{16\pi^{2}\cdot {\lambda_C}^{2}} \) |
| Capacitance | Conductance | Aether Fluctuation Potential |
| \( \mathrm{capc} = \dfrac{{\lambda_C}}{16\pi^{2}} \) | \( \mathrm{cond} = \dfrac{c}{16\pi^{2}} \) | \( \mathrm{aefp} = \dfrac{c^{2}}{16\pi^{2}\,{\lambda_C}} \) |
| Acceptance | Exposure Diffusion Flux | Curl |
| \( \mathrm{accp} = \dfrac{{\lambda_C}^{2}}{16\pi^{2}} \) | \( \mathrm{exdf} = \dfrac{c\,{\lambda_C}}{16\pi^{2}} \) | \( \mathrm{curl} = \dfrac{c^{2}}{16\pi^{2}} \) |
| Converging Electric Field | Conductance Density | Exposure |
| \( \mathrm{cvef} = \dfrac{{\lambda_C}^{3}}{16\pi^{2}} \) | \( \mathrm{cden} = \dfrac{c\,{\lambda_C}^{2}}{16\pi^{2}} \) | \( \mathrm{expr} = \dfrac{c^2\,{\lambda_C}}{16\pi^{2}} \) |
Magnetic Field Resistance and Flow Units
Dynamic Units
| Friction | Magnetic Flow Impedance | Flux Flow Equilibrium |
|---|---|---|
| \( \mathrm{fric} = \dfrac{16\pi^{2}\cdot 16\pi^{2}}{{m_{e}}\, c^{2}\,{\lambda_C}} \) | \( \mathrm{mgfi} = \dfrac{16\pi^{2}\cdot 16\pi^{2}}{{m_{e}}\, c^{3}} \) | \( \mathrm{ffeq} = \dfrac{16\pi^{2}\cdot 16\pi^{2}\,{\lambda_C}}{{m_{e}}\, c^{4}} \) |
| Kinetic Friction | Resistance | Magnetic Permeance |
| \( \mathrm{kfcn} = \dfrac{16\pi^{2}\cdot 16\pi^{2}}{{m_{e}}\, c^{2}\,{\lambda_C}^{2}} \) | \( \mathrm{resn} = \dfrac{16\pi^{2}\cdot 16\pi^{2}}{{m_{e}}\, c^{3}\,{\lambda_C}} \) | \( \mathrm{magp} = \dfrac{16\pi^{2}\cdot 16\pi^{2}}{{m_{e}}\, c^{4}} \) |
| Magnetic Flux Density Wave | Magnetic Diffusion Impedance | Thermal Magnetic Friction |
| \( \mathrm{mfdw} = \dfrac{16\pi^{2}\cdot 16\pi^{2}}{{m_{e}}\, c^{2}\,{\lambda_C}^{3}} \) | \( \mathrm{mdif} = \dfrac{16\pi^{2}\cdot 16\pi^{2}}{{m_{e}}\, c^{3}\,{\lambda_C}^{2}} \) | \( \mathrm{thmf} = \dfrac{16\pi^{2}\cdot 16\pi^{2}}{{m_{e}}\, c^{4}\,{\lambda_C}} \) |
| Aether Resistance Stability Factor | Potential Charge Concentration Factor | Magnetic Opposition |
| \( \mathrm{arsf} = \dfrac{16\pi^{2}\cdot 16\pi^{2}}{{m_{e}}\, c^{2}\,{\lambda_C}^{4}} \) | \( \mathrm{pccf} = \dfrac{16\pi^{2}\cdot 16\pi^{2}}{{m_{e}}\, c^{3}\,{\lambda_C}^{3}} \) | \( \mathrm{mopp} = \dfrac{16\pi^{2}\cdot 16\pi^{2}}{{m_{e}}\, c^{4}\,{\lambda_C}^{2}} \) |
Substrate Units
| Electromagnetic Ratio | Electromagnetic Interaction Coefficient | Current Flow Facilitation Factor |
|---|---|---|
| \( \mathrm{emro} = \dfrac{{m_{e}}\, c^{2}\,{\lambda_C}}{16\pi^{2}\cdot 16\pi^{2}} \) | \( \mathrm{emic} = \dfrac{{m_{e}}\, c^{3}}{16\pi^{2}\cdot 16\pi^{2}} \) | \( \mathrm{cfff} = \dfrac{{m_{e}}\, c^{4}}{(16\pi^{2}\cdot 16\pi^{2})\,{\lambda_C}} \) |
| Magnetic Spatial Compliance | Admittance | Magnetic Reluctance |
| \( \mathrm{masc} = \dfrac{{m_{e}}\, c^{2}\,{\lambda_C}^{2}}{16\pi^{2}\cdot 16\pi^{2}} \) | \( \mathrm{admt} = \dfrac{{m_{e}}\, c^{3}\,{\lambda_C}}{16\pi^{2}\cdot 16\pi^{2}} \) | \( \mathrm{mrlc} = \dfrac{{m_{e}}\, c^{4}}{16\pi^{2}\cdot 16\pi^{2}} \) |
| Magnetic Current Impedance | Magnetic Field Resistance | Magnetic Field Energy |
| \( \mathrm{mcri} = \dfrac{{m_{e}}\, c^{2}\,{\lambda_C}^{3}}{16\pi^{2}\cdot 16\pi^{2}} \) | \( \mathrm{mfdr} = \dfrac{{m_{e}}\, c^{3}\,{\lambda_C}^{2}}{16\pi^{2}\cdot 16\pi^{2}} \) | \( \mathrm{mfen} = \dfrac{{m_{e}}\, c^{4}\,{\lambda_C}}{16\pi^{2}\cdot 16\pi^{2}} \) |
| Magnetic Charge per Unit Potential | Magneto-Spatial Impedance Ratio | Electromagnetic Interaction Density |
| \( \mathrm{mcup} = \dfrac{{m_{e}}\, c^{2}\,{\lambda_C}^{4}}{16\pi^{2}\cdot 16\pi^{2}} \) | \( \mathrm{msir} = \dfrac{{m_{e}}\, c^{3}\,{\lambda_C}^{3}}{16\pi^{2}\cdot 16\pi^{2}} \) | \( \mathrm{emid} = \dfrac{{m_{e}}\, c^{4}\,{\lambda_C}^{2}}{16\pi^{2}\cdot 16\pi^{2}} \) |
Quantum Electrodynamic Foundational Units
Dynamic Units
| Quantum Photomagnetic Density | Magnetic Charge per Photon | Magnetic Charge Density per Rotation | Magnetic Charge Rotational Density |
|---|---|---|---|
| \( \mathrm{qpmd} = \dfrac{1}{16\pi^{2}\, c^{3}} \) | \( \mathrm{mcpp} = \dfrac{{\lambda_C}}{16\pi^{2}\, c^{2}} \) | \( \mathrm{mcdr} = \dfrac{{\lambda_C}^{2}}{16\pi^{2}\, c} \) | \( \mathrm{mcrd} = \dfrac{{\lambda_C}^{3}}{16\pi^{2}} \) |
| Quantum Illumination Density | Quantum Electric Charge Flux | Charge Surface-Temporal Confinement Coefficient | Charge Surface Confinement Coefficient |
| \( \mathrm{qild} = \dfrac{1}{16\pi^{2}\, c^{2}\,{\lambda_C}} \) | \( \mathrm{qecf} = \dfrac{1}{16\pi^{2}\, c} \) | \( \mathrm{cscc} = \dfrac{{\lambda_C}}{16\pi^{2}} \) | \( \mathrm{chcc} = \dfrac{{\lambda_C}^{2}\, c}{16\pi^{2}} \) |
| Quantum Electric Charge Jerk | Quantum Electric Charge Acceleration | Quantum Electric Charge Drift | Quantum Electric Charge Displacement |
| \( \mathrm{qecj} = \dfrac{1}{16\pi^{2}\, c\,{\lambda_C}^{2}} \) | \( \mathrm{qeca} = \dfrac{1}{16\pi^{2}\,{\lambda_C}} \) | \( \mathrm{qecd} = \dfrac{c}{16\pi^{2}} \) | \( \mathrm{ecdp} = \dfrac{c^{2}\,{\lambda_C}}{16\pi^{2}} \) |
| Quantum Electric Charge Intensity | Quantum Electric Charge Oscillation | Quantum Electric Charge Fluctuation | Magnetic Charge Affinity |
| \( \mathrm{qeci} = \dfrac{1}{16\pi^{2}\,{\lambda_C}^{3}} \) | \( \mathrm{qeco} = \dfrac{c}{16\pi^{2}\,{\lambda_C}^{2}} \) | \( \mathrm{ecfx} = \dfrac{c^{2}}{16\pi^{2}\,{\lambda_C}} \) | \( \mathrm{mcaf} = \dfrac{c^{3}}{16\pi^{2}} \) |
Substrate Units
| Quantum Electric Field Volumetric Resonance | Quantum Electric Field Volumetric Adaptability | Quantum Electric Field Volumetric Compliance | Charge Volume |
|---|---|---|---|
| \( \mathrm{efvr}= 16\pi^{2}\, c^{3} \) | \( \mathrm{efva} = \dfrac{16\pi^{2}\, c^{2}}{{\lambda_C}} \) | \( \mathrm{efvc} = \dfrac{16\pi^{2}\, c}{{\lambda_C}^{2}} \) | \( \mathrm{chvm} = \dfrac{16\pi^{2}}{{\lambda_C}^{3}} \) |
| Ball Lightning | Plasma | Magnetic Moment | Surface Charge |
| \( \mathrm{ball} = 16\pi^{2}\, c^{2}\,{\lambda_C} \) | \( \mathrm{plsm} = 16\pi^{2}\, c \) | \( \mathrm{magm} = \dfrac{16\pi^{2}}{{\lambda_C}} \) | \( \mathrm{sfch} = \dfrac{16\pi^{2}}{c\,{\lambda_C}^{2}} \) |
| Quantum Electric Field Dynamic Responsivity | Accelerating Charge | Charge Velocity | Charge Length (Charge Displacement) |
| \( \mathrm{efdr} = 16\pi^{2}\, c\,{\lambda_C}^{2} \) | \( \mathrm{acch} = 16\pi^{2}\, {\lambda_C} \) | \( \mathrm{chvl} = \dfrac{16\pi^{2}}{c} \) | \( \mathrm{chgl} = \dfrac{16\pi^{2}}{c^{2}} \) |
| Quantum Electric Field Temporal Intensity | Charge Resonance (Electric Coupling) | Current | Charge |
| \( \mathrm{efti} = 16\pi^{2}\, {\lambda_C}^{3} \) | \( \mathrm{chrs} = \dfrac{16\pi^{2}\, {\lambda_C}^{2}}{c} \) | \( \mathrm{curr} = \dfrac{16\pi^{2}\, {\lambda_C}}{c^{2}} \) | \( \mathrm{chrg} = \dfrac{16\pi^{2}}{c^{3}} \) |
Quantum Electrodynamic Distribution Units
Dynamic Units
| Quantum Volumetric Charge Inertia | Quantum Volumetric Charge Reluctance | Quantum Volumetric Charge Persistence | Specific Charge |
|---|---|---|---|
| \( \mathrm{qvci} = \dfrac{{\lambda_C}^{3}}{16\pi^{2}\, c^{3}} \) | \( \mathrm{qvcr} = \dfrac{{\lambda_C}^{4}}{16\pi^{2}\, c^{2}} \) | \( \mathrm{qvcp} = \dfrac{{\lambda_C}^{5}}{16\pi^{2}\, c} \) | \( \mathrm{spch} = \dfrac{{\lambda_C}^{6}}{16\pi^{2}} \) |
| Quantum Charge Distribution Resistance | Quantum Charge Distribution Periodicity | Quantum Charge Distribution Dynamics | 1. Charge Distribution 2. Stroke |
| \( \mathrm{qcdr} = \dfrac{{\lambda_C}^{2}}{16\pi^{2}\, c^{2}} \) | \( \mathrm{qcdp} = \dfrac{{\lambda_C}^{3}}{16\pi^{2}\, c} \) | \( \mathrm{qcdd} = \dfrac{{\lambda_C}^{4}}{16\pi^{2}} \) | \( \mathrm{chds} = \dfrac{{\lambda_C}^{5} c}{16\pi^{2}} \) |
| Quantum Charge Radius Resistance | Quantum Charge Radius Periodicity | Quantum Charge Radius Dynamics | Charge Radius |
| \( \mathrm{qcrr} = \dfrac{{\lambda_C}}{16\pi^{2}\, c} \) | \( \mathrm{qcrp} = \dfrac{{\lambda_C}^{2}}{16\pi^{2}} \) | \( \mathrm{qcrd} = \dfrac{{\lambda_C}^{3} c}{16\pi^{2}} \) | \( \mathrm{chgr} = \dfrac{{\lambda_C}^{4} c^{2}}{16\pi^{2}} \) |
Substrate Units
| Quantum Charge Density Intensity | Quantum Charge Density Resonance | Quantum Charge Density Oscillation | Charge Density |
|---|---|---|---|
| \( \mathrm{qcdi} = \dfrac{16\pi^{2}\, c^{3}}{{\lambda_C}^{3}} \) | \( \mathrm{cdrs} = \dfrac{16\pi^{2}\, c^{2}}{{\lambda_C}^{4}} \) | \( \mathrm{cdos} = \dfrac{16\pi^{2}\, c}{{\lambda_C}^{5}} \) | \( \mathrm{chgd} = \dfrac{16\pi^{2}}{{\lambda_C}^{6}} \) |
| Quantum Electric Surface Intensity | Quantum Electric Field Resonance | Current Density | Electric Flux Density |
| \( \mathrm{qesi} = \dfrac{16\pi^{2}\, c^{2}}{{\lambda_C}^{2}} \) | \( \mathrm{qefr} = \dfrac{16\pi^{2}\, c}{{\lambda_C}^{3}} \) | \( \mathrm{cdns} = \dfrac{16\pi^{2}}{{\lambda_C}^{4}} \) | \( \mathrm{efxd} = \dfrac{16\pi^{2}\, c}{{\lambda_C}^{5}} \) |
| Quantum Electric Gradient Intensity | Quantum Electric Gradient Resonance | Magnetic Field Intensity | Electric Charge Gradient |
| \( \mathrm{qegi} = \dfrac{16\pi^{2}\, c}{{\lambda_C}} \) | \( \mathrm{qegr} = \dfrac{16\pi^{2}}{{\lambda_C}^{2}} \) | \( \mathrm{mfdi} = \dfrac{16\pi^{2}}{c\,{\lambda_C}^{3}} \) | \( \mathrm{elcg} = \dfrac{16\pi^{2}}{c^{2}\,{\lambda_C}^{4}} \) |
Electromagnetic Behavioral Units
Dynamic Units
| Trivariate Magnetic Oscillation | Varying Electric Field | Electric Field | Specific Charge |
|---|---|---|---|
| \( \mathrm{trmo} = \dfrac{c^{3}}{16\pi^{2}} \) | \( \mathrm{vefd} = \dfrac{c^{2}\,{\lambda_C}}{16\pi^{2}} \) | \( \mathrm{efld} = \dfrac{c\,{\lambda_C}^{2}}{16\pi^{2}} \) | \( \mathrm{spch} = \dfrac{{\lambda_C}^{3}}{16\pi^{2}} \) |
| Dynamic Electric Field Intensity | Charge Temperature | Charge Sweep | 1. Charge Distribution 2. Stroke |
| \( \mathrm{defi} = \dfrac{c^{2}}{16\pi^{2}} \) | \( \mathrm{chgt} = \dfrac{c\,{\lambda_C}}{16\pi^{2}} \) | \( \mathrm{chgs} = \dfrac{{\lambda_C}^{2}}{16\pi^{2}} \) | \( \mathrm{chds} = \dfrac{{\lambda_C}^{3}}{16\pi^{2}\, c} \) |
| Dynamic Electric Field Flux | Charge Acceleration | Charge Velocity | Charge Radius |
| \( \mathrm{deff} = \dfrac{c}{16\pi^{2}} \) | \( \mathrm{chga} = \dfrac{{\lambda_C}}{16\pi^{2}} \) | \( \mathrm{chgv} = \dfrac{{\lambda_C}^{2}}{16\pi^{2}\, c} \) | \( \mathrm{chgr} = \dfrac{{\lambda_C}^{3}}{16\pi^{2}\, c^{2}} \) |
| Dynamic Electric Field Oscillation | Charge Resonance | 1. Magnetic Current 2. Charge Frequency | Magnetic Charge Affinity |
| \( \mathrm{defa} = \dfrac{1}{16\pi^{2}} \) | \( \mathrm{crsn} = \dfrac{{\lambda_C}}{16\pi^{2}\, c} \) | \( \mathrm{mcur} = \dfrac{{\lambda_C}^{2}}{16\pi^{2}\, c^{2}} \) | \( \mathrm{mcaf} = \dfrac{{\lambda_C}^{3}}{16\pi^{2}\, c^{3}} \) |
Substrate Units
| Quantum Electric Field Susceptibility | Quantum Electric Field Receptivity | Quantum Electric Field Compliance | Charge Density |
|---|---|---|---|
| \( \mathrm{qefs} = \dfrac{16\pi^{2}}{c^{3}} \) | \( \mathrm{qerc} = \dfrac{16\pi^{2}}{c^{2}\,{\lambda_C}} \) | \( \mathrm{qefc} = \dfrac{16\pi^{2}}{c\,{\lambda_C}^{2}} \) | \( \mathrm{chgd} = \dfrac{16\pi^{2}}{{\lambda_C}^{3}} \) |
| Quantum Electric Field Intensity | Quantum Electric Field Resonance | Magnetic Charge Density Frequency | Electric Flux Density |
| \( \mathrm{qefi} = \dfrac{16\pi^{2}}{c^{2}} \) | \( \mathrm{efrs} = \dfrac{16\pi^{2}}{c\,{\lambda_C}} \) | \( \mathrm{mcdf} = \dfrac{16\pi^{2}}{{\lambda_C}^{2}} \) | \( \mathrm{efxd} = \dfrac{16\pi^{2}\, c}{{\lambda_C}^{3}} \) |
| Quantum Electric Field Plasticity | Quantum Electric Field Elasticity | Quantum Electric Field Conductance | Electric Charge Gradient |
| \( \mathrm{qefp} = \dfrac{16\pi^{2}}{c} \) | \( \mathrm{qefe} = \dfrac{16\pi^{2}}{{\lambda_C}} \) | \( \mathrm{efcd} = \dfrac{16\pi^{2}\, c}{{\lambda_C}^{2}} \) | \( \mathrm{elcg} = \dfrac{16\pi^{2}\, c^{2}}{{\lambda_C}^{3}} \) |
| Quantum Electric Field Permeability | Quantum Electric Field Susceptibility | Quantum Electric Field Permittivity | Charge |
| \( \mathrm{efpm} = 16\pi^{2} \) | \( \mathrm{efsu} = \dfrac{16\pi^{2}\, c}{{\lambda_C}} \) | \( \mathrm{efpt} = \dfrac{16\pi^{2}\, c^{2}}{{\lambda_C}^{2}} \) | \( \mathrm{chrg} = \dfrac{16\pi^{2}\, c^{3}}{{\lambda_C}^{3}} \) |
Fundamental Inertial and Behavioral Units
Dynamic Units
| Light | Photon | Quantum Angular Reach | Vortex |
|---|---|---|---|
| \( \mathrm{ligt} = {m_{e}}\, c^{3} \) | \( \mathrm{phtn} = {m_{e}}\, c^{2}\,{\lambda_C} \) | \( \mathrm{qanr} = {m_{e}}\, c\,{\lambda_C}^{2} \) | \( \mathrm{vrtx} = {m_{e}}\,{\lambda_C}^{3} \) |
| Power | Energy | Angular Momentum | Moment of Inertia |
| \( \mathrm{powr} = \dfrac{{m_{e}}\, c^{3}}{{\lambda_C}} \) | \( \mathrm{enrg} = {m_{e}}\, c^{2} \) | \( \mathrm{angm} = {m_{e}}\, c\,{\lambda_C} \) | \( \mathrm{minr} = {m_{e}}\,{\lambda_C}^{2} \) |
| 1. Shock Frequency 2. Light Intensity | Force | Momentum | Torque |
| \( \mathrm{lint} = \dfrac{{m_{e}}\, c^{3}}{{\lambda_C}^{2}} \) | \( \mathrm{forc} = \dfrac{{m_{e}}\, c^{2}}{{\lambda_C}} \) | \( \mathrm{momt} = {m_{e}}\, c \) | \( \mathrm{torq} = {m_{e}}\,{\lambda_C} \) |
| Irradiance | Surface Tension | Intensity | Mass |
| \( \mathrm{irrd} = \dfrac{{m_{e}}\, c^{3}}{{\lambda_C}^{3}} \) | \( \mathrm{sten} = \dfrac{{m_{e}}\, c^{2}}{{\lambda_C}^{2}} \) | \( \mathrm{ints} = \dfrac{{m_{e}}\, c}{{\lambda_C}} \) | \( \mathrm{mass} = {m_{e}} \) |
Substrate Units
| Optical Compliance | Innate Particulate Reolvability | Quantum Volumetric Receptivity | Quantum Volumetric Inertia |
|---|---|---|---|
| \( \mathrm{ocmp} = \dfrac{1}{{m_{e}}\, c^{3}} \) | \( \mathrm{inpr} = \dfrac{1}{{m_{e}}\, c^{2}\,{\lambda_C}} \) | \( \mathrm{qvrc} = \dfrac{1}{{m_{e}}\, c\,{\lambda_C}^{2}} \) | \( \mathrm{qvoi} = \dfrac{1}{{m_{e}}\,{\lambda_C}^{3}} \) |
| Quantum Surface Receptivity | Quantum Surface Inertia | Quantum Angular Receptivity Gauge | Quantum Area Inertia |
| \( \mathrm{qsrc} = \dfrac{{\lambda_C}}{{m_{e}}\, c^{3}} \) | \( \mathrm{qusi} = \dfrac{1}{{m_{e}}\, c^{2}} \) | \( \mathrm{qarg} = \dfrac{1}{{m_{e}}\, c\,{\lambda_C}} \) | \( \mathrm{qari} = \dfrac{1}{{m_{e}}\,{\lambda_C}^{2}} \) |
| Quantum Inverse Light Intensity | Spatial Tensility | Quantum Mobility | Quantum Flexibility |
| \( \mathrm{qili} = \dfrac{{\lambda_C}^{2}}{{m_{e}}\, c^{3}} \) | \( \mathrm{sptn} = \dfrac{{\lambda_C}}{{m_{e}}\, c^{2}} \) | \( \mathrm{qmob} = \dfrac{1}{{m_{e}}\, c} \) | \( \mathrm{qflx} = \dfrac{1}{{m_{e}}\,{\lambda_C}} \) |
| Quantum Opacity | Quantum Spreadability | Displacement Field | Quantum Existential Limit |
| \( \mathrm{qopq} = \dfrac{{\lambda_C}^{3}}{{m_{e}}\, c^{3}} \) | \( \mathrm{qspr} = \dfrac{{\lambda_C}^{2}}{{m_{e}}\, c^{2}} \) | \( \mathrm{dfld} = \dfrac{{\lambda_C}}{{m_{e}}\, c} \) | \( \mathrm{qexl} = \dfrac{1}{{m_{e}}} \) |
Density and Distributional Behavioral Units
Dynamic Units
| Quantum Mass Frequency Activity | Quantum Mass Resonance Occupation | Quantum Mass Frequency Oscillation | Mass Density |
|---|---|---|---|
| \( \mathrm{qmfa} = \dfrac{{m_{e}}\, c^{3}}{{\lambda_C}^{6}} \) | \( \mathrm{qmro} = \dfrac{{m_{e}}\, c^{2}}{{\lambda_C}^{5}} \) | \( \mathrm{qmfo} = \dfrac{{m_{e}}\, c}{{\lambda_C}^{4}} \) | \( \mathrm{masd} = \dfrac{{m_{e}}}{{\lambda_C}^{3}} \) |
| Quantum Surface Activity | Force Density | Momentum Density | Surface Density |
| \( \mathrm{qsac} = \dfrac{{m_{e}}\, c^{3}}{{\lambda_C}^{5}} \) | \( \mathrm{fdns} = \dfrac{{m_{e}}\, c^{2}}{{\lambda_C}^{4}} \) | \( \mathrm{momd} = \dfrac{{m_{e}}\, c}{{\lambda_C}^{3}} \) | \( \mathrm{sfcd} = \dfrac{{m_{e}}}{{\lambda_C}^{2}} \) |
| Pressure Diffusion Rate | Pressure | Viscosity | 1. Rebound 2. Length Density |
| \( \mathrm{pdrt} = \dfrac{{m_{e}}\, c^{3}}{{\lambda_C}^{4}} \) | \( \mathrm{pres} = \dfrac{{m_{e}}\, c^{2}}{{\lambda_C}^{3}} \) | \( \mathrm{visc} = \dfrac{{m_{e}}\, c}{{\lambda_C}^{2}} \) | \( \mathrm{ldns} = \dfrac{{m_{e}}}{{\lambda_C}} \) |
Substrate Units
| Quantum Volume Fluctuation Impedance | Quantum Volume Temporal Compliance | Quantum Volume Dynamic Flux | Specific Volume |
|---|---|---|---|
| \( \mathrm{qvfi} = \dfrac{{\lambda_C}^{6}}{{m_{e}}\, c^{3}} \) | \( \mathrm{qvtc} = \dfrac{{\lambda_C}^{5}}{{m_{e}}\, c^{2}} \) | \( \mathrm{qvdf} = \dfrac{{\lambda_C}^{4}}{{m_{e}}\, c} \) | \( \mathrm{spcv} = \dfrac{{\lambda_C}^{3}}{{m_{e}}} \) |
| Quantum Surface Frequency Response | Quantum Area Resonance Compliance | Quantum Surface Dynamic Compliance | Specific Area |
| \( \mathrm{qsfr} = \dfrac{{\lambda_C}^{5}}{{m_{e}}\, c^{3}} \) | \( \mathrm{qarc} = \dfrac{{\lambda_C}^{4}}{{m_{e}}\, c^{2}} \) | \( \mathrm{qsdc} = \dfrac{{\lambda_C}^{3}}{{m_{e}}\, c} \) | \( \mathrm{spar} = \dfrac{{\lambda_C}^{2}}{{m_{e}}} \) |
| Quantum Linear Oscillation Density | Quantum Linear Dynamic Compliance | Quantum Linear Temporal Compliance | Specific Length |
| \( \mathrm{qlod} = \dfrac{{\lambda_C}^{4}}{{m_{e}}\, c^{3}} \) | \( \mathrm{qldc} = \dfrac{{\lambda_C}^{3}}{{m_{e}}\, c^{2}} \) | \( \mathrm{qltc} = \dfrac{{\lambda_C}^{2}}{{m_{e}}\, c} \) | \( \mathrm{spln} = \dfrac{{\lambda_C}}{{m_{e}}} \) |
Coupling and Interactional Behavioral Units
Dynamic Units
| Quantum Density Intensity Resistance | Mass-Resonance Coupling Ratio | Mass Frequency Distribution Ratio |
|---|---|---|
| \( \mathrm{qdir} = \dfrac{{m_{e}}}{c^{3}} \) | \( \mathrm{mrcr} = \dfrac{{m_{e}}}{{\lambda_C}\, c^{2}} \) | \( \mathrm{mfrd} = \dfrac{{m_{e}}}{{\lambda_C}^{2}\, c} \) |
| Surface Charge Intensity Ratio | Surface Charge Orbital Coefficient | Surface Charge Temporal Factor |
| \( \mathrm{scir} = \dfrac{{m_{e}}\, {\lambda_C}}{c^{3}} \) | \( \mathrm{scoc} = \dfrac{{m_{e}}}{c^{2}} \) | \( \mathrm{sctf} = \dfrac{{m_{e}}}{{\lambda_C}\, c} \) |
| Length Density Quantum Ratio | Length Density Orbital Coefficient | Length Density Temporal Factor |
| \( \mathrm{ldqr} = \dfrac{{m_{e}}\, {\lambda_C}^{2}}{c^{3}} \) | \( \mathrm{ldoc} = \dfrac{{m_{e}}\, {\lambda_C}}{c^{2}} \) | \( \mathrm{ldtf} = \dfrac{{m_{e}}}{c} \) |
| Quantum Mass Intensity Resistance | Quantum Mass Orbital Period | Quantum Mass Temporal Coefficient |
| \( \mathrm{qmir} = \dfrac{{m_{e}}\, {\lambda_C}^{3}}{c^{3}} \) | \( \mathrm{qmop} = \dfrac{{m_{e}}\, {\lambda_C}^{2}}{c^{2}} \) | \( \mathrm{qmtc} = \dfrac{{m_{e}}\, {\lambda_C}}{c} \) |
Substrate Units
| Quantum Volume Oscillation Density | Quantum Aether Gravitational Mobility | Quantum Aether Volumetric Flux Mobility |
|---|---|---|
| \( \mathrm{qvod} = \dfrac{c^{3}}{{m_{e}}} \) | \( \mathrm{qagm} = \dfrac{{\lambda_C}\, c^{2}}{{m_{e}}} \) | \( \mathrm{qavm} = \dfrac{{\lambda_C}^{2}\, c}{{m_{e}}} \) |
| Quantum Aether Surface Oscillation Mobility | Quantum Aether Thermal Mobility | Quantum Aether Angular Mobility |
| \( \mathrm{qasm} = \dfrac{c^{3}}{{m_{e}}\, {\lambda_C}} \) | \( \mathrm{qatm} = \dfrac{c^{2}}{{m_{e}}} \) | \( \mathrm{qaam} = \dfrac{{\lambda_C}\, c}{{m_{e}}} \) |
| Quantum Aether Dynamic Intensity | Quantum Aether Dynamic Mobility | Quantum Aether Mobility |
| \( \mathrm{qadi} = \dfrac{c^{3}}{{m_{e}}\, {\lambda_C}^{2}} \) | \( \mathrm{qadm} = \dfrac{c^{2}}{{m_{e}}\, {\lambda_C}} \) | \( \mathrm{qamo} = \dfrac{c}{{m_{e}}} \) |
| Specific Quantum Intensity Factor | Specific Quantum Resonance | Specific Quantum Frequency |
| \( \mathrm{sqif} = \dfrac{c^{3}}{{m_{e}}\, {\lambda_C}^{3}} \) | \( \mathrm{sqre} = \dfrac{c^{2}}{{m_{e}}\, {\lambda_C}^{2}} \) | \( \mathrm{sqfr} = \dfrac{c}{{m_{e}}\, {\lambda_C}} \) |
Oscillation and Spatial Dynamics Units
Dynamic Units
| Quantum Volume Oscillation | 1. Double Toroid 2. Volume-Resonance | Flow | Volume |
|---|---|---|---|
| \( \mathrm{qvos} = c^{3} \) | \( \mathrm{dtrd} = c^{2}\,{\lambda_C} \) | \( \mathrm{flow} = c\,{\lambda_C}^{2} \) | \( \mathrm{volm} = {\lambda_C}^{3} \) |
| Quantum Surface Oscillation | 1. Radiation Dose 2. Temperature | 1. Sweep 2. Angular Velocity | Area |
| \( \mathrm{qsfo} = \dfrac{c^{3}}{{\lambda_C}} \) | \( \mathrm{temp} = c^{2} \) | \( \mathrm{swep} = c\,{\lambda_C} \) | \( \mathrm{area} = {\lambda_C}^{2} \) |
| Quantum Dynamic Frequency | Acceleration | Velocity | Length |
| \( \mathrm{qdyf} = \dfrac{c^{3}}{{\lambda_C}^{2}} \) | \( \mathrm{accl} = \dfrac{c^{2}}{{\lambda_C}} \) | \( \mathrm{velc} = c \) | \( \mathrm{leng} = {\lambda_C} \) |
| Quantum Intensity Factor | Resonance | Frequency | |
| \( \mathrm{qinf} = \dfrac{c^{3}}{{\lambda_C}^{3}} \) | \( \mathrm{rson} = \dfrac{c^{2}}{{\lambda_C}^{2}} \) | \( \mathrm{freq} = \dfrac{c}{{\lambda_C}} \) |
Substrate Units
| Quantum Volume Oscillation Resistance | Inverse Volume Resonance | Volumetric Field Density | Field Intensity |
|---|---|---|---|
| \( \mathrm{qvor} = \dfrac{1}{c^{3}} \) | \( \mathrm{invr} = \dfrac{1}{c^{2}\,{\lambda_C}} \) | \( \mathrm{vfdn} = \dfrac{1}{c\,{\lambda_C}^{2}} \) | \( \mathrm{fint} = \dfrac{1}{{\lambda_C}^{3}} \) |
| Quantum Surface Frequency Impedance | Quantum Surface Intensity | Surface Flux Resistance | Bending Radius |
| \( \mathrm{qsfi} = \dfrac{{\lambda_C}}{c^{3}} \) | \( \mathrm{qsin} = \dfrac{1}{c^{2}} \) | \( \mathrm{sfrs} = \dfrac{1}{c\,{\lambda_C}} \) | \( \mathrm{bndr} = \dfrac{1}{{\lambda_C}^{2}} \) |
| Quantum Dynamic Frequency Resistance | Momentum Resistance Coefficient | Quantum Inertial Density | Wave Number |
| \( \mathrm{qdfr} = \dfrac{{\lambda_C}^{2}}{c^{3}} \) | \( \mathrm{morc} = \dfrac{{\lambda_C}}{c^{2}} \) | \( \mathrm{quid} = \dfrac{1}{c} \) | \( \mathrm{wavn} = \dfrac{1}{{\lambda_C}} \) |
| Quantum Intensity Resistance | Orbit | Time | |
| \( \mathrm{qire} = \dfrac{{\lambda_C}^{3}}{c^{3}} \) | \( \mathrm{orbt} = \dfrac{{\lambda_C}^{2}}{c^{2}} \) | \( \mathrm{time} = \dfrac{{\lambda_C}}{c} \) |
Spatio-Temporal Dynamics Units
Dynamic Units
| Orbital Volume Evolution | Volumetric Orbital Coherence | Volume-Time |
|---|---|---|
| \( \mathrm{ovev} = \dfrac{{\lambda_C}^{3}}{c^{3}} \) | \( \mathrm{voco} = \dfrac{{\lambda_C}^{3}}{c^{2}} \) | \( \mathrm{vlmt} = \dfrac{{\lambda_C}^{3}}{c} \) |
| Temporal Area Flux | Area-Time Flux | Active Area |
| \( \mathrm{tafx} = \dfrac{{\lambda_C}^{2}}{c^{3}} \) | \( \mathrm{atfx} = \dfrac{{\lambda_C}^{2}}{c^{2}} \) | \( \mathrm{acta} = \dfrac{{\lambda_C}^{2}}{c} \) |
| Helical Path Length | Quantum Trajectory Length | Dynamic Length |
| \( \mathrm{hepl} = \dfrac{{\lambda_C}}{c^{3}} \) | \( \mathrm{qtrl} = \dfrac{{\lambda_C}}{c^{2}} \) | \( \mathrm{dynl} = \dfrac{{\lambda_C}}{c} \) |
Substrate Units
| Volumetric Quantum Oscillation | Volumetric Resonance | Volumetric Wave Frequency per Volume |
|---|---|---|
| \( \mathrm{voqo} = \dfrac{c^{3}}{{\lambda_C}^{3}} \) | \( \mathrm{vlmr} = \dfrac{c^{2}}{{\lambda_C}^{3}} \) | \( \mathrm{vlmw} = \dfrac{c}{{\lambda_C}^{3}} \) |
| Transverse Quantum Oscillation Density | Transverse Resonance | Transverse Wave Frequency per Area |
| \( \mathrm{tqod} = \dfrac{c^{3}}{{\lambda_C}^{2}} \) | \( \mathrm{tvsr} = \dfrac{c^{2}}{{\lambda_C}^{2}} \) | \( \mathrm{tvsw} = \dfrac{c}{{\lambda_C}^{2}} \) |
| Scalar Quantum Oscillation Density | Scalar Resonance | Scalar Wave Vorticity |
| \( \mathrm{sqod} = \dfrac{c^{3}}{{\lambda_C}} \) | \( \mathrm{sclr} = \dfrac{c^{2}}{{\lambda_C}} \) | \( \mathrm{sclw} = \dfrac{c}{{\lambda_C}} \) |
