Primary Source
data/qmu-semantic-registry.json
Canonical semantic definitions for QADI/APM base and derived QMU concepts.
Authority-facing registry view for QMU semantic records, canonical unit symbols, aliases, expressions, and Explorer navigation. Alias relationships are preserved.
data/qmu-semantic-registry.json
Canonical semantic definitions for QADI/APM base and derived QMU concepts.
260 reconciliation rows loaded.
Used as symbol/canonical-ID authority across Explorer pages.
Aliases and equivalent labels are displayed, not collapsed.
Example: rmfd may appear as Rotating Magnetic Field and Aether Unit authority.
| Symbol | Label | Type | Expression / Role | Explorer Actions |
|---|---|---|---|---|
| volm |
Volume Unitvolm
Volume Unit
volm
volume-unit
|
derived-qmu | \(volm\) | |
| mass \({m_e}\) |
Massmass
Mass
mass
me
electron-mass
Electron Mass
{m_e}
m-e
|
qmu-primary-canonical | \({m_e}\) | |
| leng |
Compton wavelengthleng
Compton wavelength
compton-wavelength
leng
compton-length
Compton Length
{\lambda_C}
lambda-c
|
qmu-primary-canonical | Length basis for QMU volume, propagation closure, curl denominator, and electron-scale spatial normalization. | |
| freq |
Quantum frequencyfreq
Quantum frequency
freq
quantum-frequency
Quantum Frequency
{F_q}
f-q
|
qmu-primary-canonical | Frequency basis for propagation closure, resonance, Aether maximum mass, and QMU temporal normalization. | |
| rmfd \(\frac{{m_e}\,{\lambda_C}^{3}\,{F_q}^{2}}{{e_{emax}}^{2}}\) |
Rotating Magnetic Fieldrmfd
Rotating Magnetic Field
me * λC^3 * Fq^2 / eemax^2
me-lambda-c-3-f-q-2-e-emax-2
rmfd
rotating-magnetic-field
|
qmu-primary-canonical | \(\frac{{m_e}\,{\lambda_C}^{3}\,{F_q}^{2}}{{e_{emax}}^{2}}\) | |
| mflx \(\frac{{m_e}\,{\lambda_C}^{2}\,{F_q}}{{e_{emax}}^{2}}\) |
Magnetic Fluxmflx
Magnetic Flux
magnetic-flux
me * λC^2 * Fq / eemax^2
me-lambda-c-2-f-q-e-emax-2
mflx
|
qmu-primary-canonical | \(\frac{{m_e}\,{\lambda_C}^{2}\,{F_q}}{{e_{emax}}^{2}}\) | |
| curl \(\frac{{e_{emax}}^{2}}{{m_e}\,{\lambda_C}}\) |
Curlcurl
Curl
curl
e-emax-2-me-lambda-c
eemax^2 / (me * λC)
|
qmu-primary-canonical | \(\frac{{e_{emax}}^{2}}{{m_e}\,{\lambda_C}}\) | |
| chrg \({e_{emax}}^{2}\) |
Chargechrg
Charge
charge
chrg
e-emax-2
eemax^2
electrostatic-charge
Electrostatic Charge
e^2
|
qmu-primary-canonical | \({e_{emax}}^{2}\) |
Full semantic registry listing. Aliases are shown as authority metadata; records are not collapsed or overwritten.
| Symbol | Semantic Record | Class | Definition | Actions |
|---|---|---|---|---|
| acch \({e_{emax}}^{2}\,{\lambda_C}\,{F_q}^{2}\) |
Charge Accelerationacch
Charge Acceleration
acch
charge-acceleration
e-emax-2-lambda-c-f-q-2
eemax^2 * λC * Fq^2
|
qmu-primary-canonical charge | Charge Acceleration is a canonical QMU unit. \({e_{emax}}^{2}\,{\lambda_C}\,{F_q}^{2}\) |
|
| accl \({\lambda_C}\,{F_q}^{2}\) |
Accelerationaccl
Acceleration
acceleration
accl
lambda-c-f-q-2
λC * Fq^2
|
qmu-primary-canonical length | Acceleration is a canonical QMU unit. \({\lambda_C}\,{F_q}^{2}\) |
|
| accp \(\frac{{e_{emax}}^{2}}{{m_e}\,{\lambda_C}\,{F_q}^{2}}\) |
Acceptanceaccp
Acceptance
acceptance
accp
e-emax-2-me-lambda-c-f-q-2
eemax^2 / (me * λC * Fq^2)
|
qmu-primary-canonical charge | Acceptance is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{m_e}\,{\lambda_C}\,{F_q}^{2}}\) |
|
| acta \(\frac{{\lambda_C}^{2}}{{F_q}}\) |
Active Areaacta
Active Area
acta
active-area
lambda-c-2-f-q
λC^2 / Fq
|
qmu-primary-canonical area | Active Area is a canonical QMU unit. \(\frac{{\lambda_C}^{2}}{{F_q}}\) |
|
| admt \(\frac{chrg}{mflx}\) |
Admittanceadmt
Admittance
admittance
admt
chrg / mflx
chrg-mflx
|
qmu-primary-canonical charge | Admittance is a canonical QMU unit. \(\frac{chrg}{mflx}\) |
|
| aefp \(\frac{{e_{emax}}^{2}}{{m_e}\,{\lambda_C}^{2}}\) |
Aether Fluctuation Potentialaefp
Aether Fluctuation Potential
aefp
aether-fluctuation-potential
e-emax-2-me-lambda-c-2
eemax^2 / (me * λC^2)
|
qmu-primary-canonical charge | Aether Fluctuation Potential is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{m_e}\,{\lambda_C}^{2}}\) |
|
| aether-maximum-mass \({m_a}\) |
Aether Maximum Massaether-maximum-mass
Aether Maximum Mass
aether-maximum-mass
m-a
{m_a}
|
derived-qmu mass | Aether maximum mass is. \(\frac{lc^{3}fq^{2}}{G}\) |
|
| aether-unit \({A_u}\) |
Aether Unitaether-unit
Aether Unit
a-u
aether-unit
{A_u}
|
derived-qmu rotational-constant | Aether Unit is Coulomb's constant expanded by the circular factor 16π². | |
| angm \({m_e}\,{\lambda_C}^{2}\,{F_q}\) |
Angular Momentumangm
Angular Momentum
angm
angular-momentum
me * λC^2 * Fq
me-lambda-c-2-f-q
|
qmu-primary-canonical area | Angular Momentum is a canonical QMU unit. \({m_e}\,{\lambda_C}^{2}\,{F_q}\) |
|
| area \({\lambda_C}^{2}\) |
Areaarea
Area
area
lambda-c-2
λC^2
|
qmu-primary-canonical area | Area is a canonical QMU unit. \({\lambda_C}^{2}\) |
|
| arsf \(\frac{{m_e}\,{F_q}^{2}}{{e_{emax}}^{4}}\) |
Aether Resistance Stability Factorarsf
Aether Resistance Stability Factor
aether-resistance-stability-factor
arsf
me * Fq^2 / eemax^4
me-f-q-2-e-emax-4
|
qmu-primary-canonical resistance | Aether Resistance Stability Factor is a canonical QMU unit. \(\frac{{m_e}\,{F_q}^{2}}{{e_{emax}}^{4}}\) |
|
| atfx \(\frac{{\lambda_C}^{2}}{{F_q}^{2}}\) |
Area-Time Fluxatfx
Area-Time Flux
area-time-flux
atfx
lambda-c-2-f-q-2
λC^2 / Fq^2
|
qmu-primary-canonical area | Area-Time Flux is a canonical QMU unit. \(\frac{{\lambda_C}^{2}}{{F_q}^{2}}\) |
|
| ball \({e_{emax}}^{2}\,{\lambda_C}^{2}\,{F_q}^{3}\) |
Ball Lightningball
Ball Lightning
ball
ball-lightning
e-emax-2-lambda-c-2-f-q-3
eemax^2 * λC^2 * Fq^3
|
qmu-primary-canonical charge | Ball Lightning is a canonical QMU unit. \({e_{emax}}^{2}\,{\lambda_C}^{2}\,{F_q}^{3}\) |
|
| bndr \(\frac{1}{{\lambda_C}^{2}}\) |
Bending Radiusbndr
1 / λC^2
1-lambda-c-2
Bending Radius
bending-radius
bndr
|
qmu-primary-canonical area | Bending Radius is a canonical QMU unit. \(\frac{1}{{\lambda_C}^{2}}\) |
|
| c2 \({F_q}^{2}\,{\lambda_C}^{2}\) |
Photon Speed Squaredc2
c2
Photon Speed Squared
Fq^2 * λC^2
Fq^2 * λC^2
photon-speed-squared
f-q-2-lambda-c-2
|
qmu-primary-canonical area | Photon Speed Squared is a canonical QMU unit. \({F_q}^{2}\,{\lambda_C}^{2}\) |
|
| capc \(\frac{{e_{emax}}^{2}}{{m_e}\,{\lambda_C}^{2}\,{F_q}^{2}}\) |
Capacitancecapc
Capacitance
capacitance
capc
e-emax-2-me-lambda-c-2-f-q-2
eemax^2 / (me * λC^2 * Fq^2)
|
qmu-primary-canonical capacitance | Capacitance is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{m_e}\,{\lambda_C}^{2}\,{F_q}^{2}}\) |
|
| cden \(\frac{{e_{emax}}^{2}}{{\lambda_C}^{2}\,{F_q}}\) |
Conductance Densitycden
Conductance Density
cden
conductance-density
e-emax-2-lambda-c-2-f-q
eemax^2 / (λC^2 * Fq)
|
qmu-primary-canonical conductance | Conductance Density is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{\lambda_C}^{2}\,{F_q}}\) |
|
| cdns \(\frac{{e_{emax}}^{2}\,{F_q}}{{\lambda_C}^{2}}\) |
Current Densitycdns
Current Density
cdns
current-density
e-emax-2-f-q-lambda-c-2
eemax^2 * Fq / λC^2
|
qmu-primary-canonical current | Current Density is a canonical QMU unit. \(\frac{{e_{emax}}^{2}\,{F_q}}{{\lambda_C}^{2}}\) |
|
| cdos \(\frac{{e_{emax}}^{2}\,{F_q}}{{\lambda_C}^{3}}\) |
Quantum Charge Density Oscillationcdos
Quantum Charge Density Oscillation
cdos
e-emax-2-f-q-lambda-c-3
eemax^2 * Fq / λC^3
quantum-charge-density-oscillation
|
qmu-primary-canonical charge | Quantum Charge Density Oscillation is a canonical QMU unit. \(\frac{{e_{emax}}^{2}\,{F_q}}{{\lambda_C}^{3}}\) |
|
| cdrs \(\frac{{e_{emax}}^{2}\,{F_q}^{2}}{{\lambda_C}^{3}}\) |
Quantum Charge Density Resonancecdrs
Quantum Charge Density Resonance
cdrs
e-emax-2-f-q-2-lambda-c-3
eemax^2 * Fq^2 / λC^3
quantum-charge-density-resonance
|
qmu-primary-canonical charge | Quantum Charge Density Resonance is a canonical QMU unit. \(\frac{{e_{emax}}^{2}\,{F_q}^{2}}{{\lambda_C}^{3}}\) |
|
| cfff \(\frac{{e_{emax}}^{4}}{{m_e}\,{\lambda_C}\,{F_q}^{3}}\) |
Current Flow Facilitation Factorcfff
Current Flow Facilitation Factor
cfff
current-flow-facilitation-factor
e-emax-4-me-lambda-c-f-q-3
eemax^4 / (me * λC * Fq^3)
|
qmu-primary-canonical current | Current Flow Facilitation Factor is a canonical QMU unit. \(\frac{{e_{emax}}^{4}}{{m_e}\,{\lambda_C}\,{F_q}^{3}}\) |
|
| chcc \(\frac{1}{{e_{emax}}^{2}\,{\lambda_C}^{2}}\) |
Charge Surface Confinement Coefficientchcc
1 / (eemax^2 * λC^2)
1-e-emax-2-lambda-c-2
Charge Surface Confinement Coefficient
charge-surface-confinement-coefficient
chcc
|
qmu-primary-canonical charge | Charge Surface Confinement Coefficient is a canonical QMU unit. \(\frac{1}{{e_{emax}}^{2}\,{\lambda_C}^{2}}\) |
|
| chds \(\frac{{\lambda_C}^{2}}{{e_{emax}}^{2}}\) |
Charge Distributionchds
Charge Distribution
charge-distribution
chds
lambda-c-2-e-emax-2
λC^2 / eemax^2
|
qmu-primary-canonical charge | Charge Distribution is a canonical QMU unit. \(\frac{{\lambda_C}^{2}}{{e_{emax}}^{2}}\) |
|
| chga \(\frac{{\lambda_C}\,{F_q}^{2}}{{e_{emax}}^{2}}\) |
Acceleration per Chargechga
Acceleration per Charge
acceleration-per-charge
chga
lambda-c-f-q-2-e-emax-2
λC * Fq^2 / eemax^2
|
qmu-primary-canonical charge | Acceleration per Charge is a canonical QMU unit. \(\frac{{\lambda_C}\,{F_q}^{2}}{{e_{emax}}^{2}}\) |
|
| chgd \(\frac{{e_{emax}}^{2}}{{\lambda_C}^{3}}\) |
Charge Densitychgd
Charge Density
charge-density
chgd
e-emax-2-lambda-c-3
eemax^2 / λC^3
|
qmu-primary-canonical charge | Charge Density is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{\lambda_C}^{3}}\) |
|
| chgl \({e_{emax}}^{2}\,{\lambda_C}\) |
Charge Lengthchgl
Charge Length
charge-length
chgl
e-emax-2-lambda-c
eemax^2 * λC
|
qmu-primary-canonical charge | Charge Length is a canonical QMU unit. \({e_{emax}}^{2}\,{\lambda_C}\) |
|
| chgr \(\frac{{\lambda_C}}{{e_{emax}}^{2}}\) |
Charge Radiuschgr
Charge Radius
charge-radius
chgr
lambda-c-e-emax-2
λC / eemax^2
|
qmu-primary-canonical charge | Charge Radius is a canonical QMU unit. \(\frac{{\lambda_C}}{{e_{emax}}^{2}}\) |
|
| chgs \(\frac{{\lambda_C}^{2}\,{F_q}}{{e_{emax}}^{2}}\) |
Charge Sweepchgs
Charge Sweep
charge-sweep
chgs
lambda-c-2-f-q-e-emax-2
λC^2 * Fq / eemax^2
|
qmu-primary-canonical charge | Charge Sweep is a canonical QMU unit. \(\frac{{\lambda_C}^{2}\,{F_q}}{{e_{emax}}^{2}}\) |
|
| chgt \(\frac{{\lambda_C}^{2}\,{F_q}^{2}}{{e_{emax}}^{2}}\) |
Charge Temperaturechgt
Charge Temperature
charge-temperature
chgt
lambda-c-2-f-q-2-e-emax-2
λC^2 * Fq^2 / eemax^2
|
qmu-primary-canonical charge | Charge Temperature is a canonical QMU unit. \(\frac{{\lambda_C}^{2}\,{F_q}^{2}}{{e_{emax}}^{2}}\) |
|
| chgv \(\frac{{\lambda_C}\,{F_q}}{{e_{emax}}^{2}}\) |
Velocity per Chargechgv
Velocity per Charge
chgv
lambda-c-f-q-e-emax-2
velocity-per-charge
λC * Fq / eemax^2
|
qmu-primary-canonical charge | Velocity per Charge is a canonical QMU unit. \(\frac{{\lambda_C}\,{F_q}}{{e_{emax}}^{2}}\) |
|
| chrg \({e_{emax}}^{2}\) |
Chargechrg
Charge
charge
chrg
e-emax-2
eemax^2
electrostatic-charge
|
qmu-primary-canonical charge | Electrostatic charge is the QMU electrostatic charge basis represented as elementary charge squared. | |
| chrs \({e_{emax}}^{2}\,{F_q}^{2}\) |
Charge Resonancechrs
Charge Resonance
charge-resonance
chrs
e-emax-2-f-q-2
eemax^2 * Fq^2
|
qmu-primary-canonical charge | Charge Resonance is a canonical QMU unit. \({e_{emax}}^{2}\,{F_q}^{2}\) |
|
| chvl \({e_{emax}}^{2}\,{\lambda_C}\,{F_q}\) |
Charge Velocitychvl
Charge Velocity
charge-velocity
chvl
e-emax-2-lambda-c-f-q
eemax^2 * λC * Fq
|
qmu-primary-canonical charge | Charge Velocity is a canonical QMU unit. \({e_{emax}}^{2}\,{\lambda_C}\,{F_q}\) |
|
| chvm \({e_{emax}}^{2}\,{\lambda_C}^{3}\) |
Charge Volumechvm
Charge Volume
charge-volume
chvm
e-emax-2-lambda-c-3
eemax^2 * λC^3
|
qmu-primary-canonical charge | Charge Volume is a canonical QMU unit. \({e_{emax}}^{2}\,{\lambda_C}^{3}\) |
|
| compton-length \({\lambda_C}\) |
Compton Lengthcompton-length
Compton Length
compton-length
lambda-c
{\lambda_C}
|
base-qmu length | Compton length is the QMU length base unit. | |
| cond \(\frac{{e_{emax}}^{2}}{{m_e}\,{\lambda_C}^{2}\,{F_q}}\) |
Conductancecond
Conductance
cond
conductance
e-emax-2-me-lambda-c-2-f-q
eemax^2 / (me * λC^2 * Fq)
qmu-conductance
|
qmu-primary-canonical conductance | QMU conductance Cd is the reciprocal of magnetic flux mflx. | |
| crsn \(\frac{{F_q}^{2}}{{e_{emax}}^{2}}\) |
Resonance per Chargecrsn
Fq^2 / eemax^2
Resonance per Charge
crsn
f-q-2-e-emax-2
resonance-per-charge
|
qmu-primary-canonical charge | Resonance per Charge is a canonical QMU unit. \(\frac{{F_q}^{2}}{{e_{emax}}^{2}}\) |
|
| cscc \(\frac{1}{{e_{emax}}^{2}\,{\lambda_C}^{2}\,{F_q}}\) |
Charge Surface - Temporal Confinement Coefficientcscc
1 / (eemax^2 * λC^2 * Fq)
1-e-emax-2-lambda-c-2-f-q
Charge Surface - Temporal Confinement Coefficient
charge-surface-temporal-confinement-coefficient
cscc
|
qmu-primary-canonical charge | Charge Surface - Temporal Confinement Coefficient is a canonical QMU unit. \(\frac{1}{{e_{emax}}^{2}\,{\lambda_C}^{2}\,{F_q}}\) |
|
| curl \(\frac{{e_{emax}}^{2}}{{m_e}\,{\lambda_C}}\) |
Curlcurl
Curl
curl
e-emax-2-me-lambda-c
eemax^2 / (me * λC)
|
qmu-primary-canonical charge | Curl is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{m_e}\,{\lambda_C}}\) |
|
| curr \({e_{emax}}^{2}\,{F_q}\) |
Currentcurr
Current
curr
current
e-emax-2-f-q
eemax^2 * Fq
|
qmu-primary-canonical current | Current is a canonical QMU unit. \({e_{emax}}^{2}\,{F_q}\) |
|
| cvef \(\frac{{e_{emax}}^{2}}{{m_e}\,{F_q}^{2}}\) |
Converging Electric Fieldcvef
Converging Electric Field
converging-electric-field
cvef
e-emax-2-me-f-q-2
eemax^2 / (me * Fq^2)
|
qmu-primary-canonical charge | Converging Electric Field is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{m_e}\,{F_q}^{2}}\) |
|
| deff \(\frac{{\lambda_C}\,{F_q}^{3}}{{e_{emax}}^{2}}\) |
Dynamic Electric Field Fluxdeff
Dynamic Electric Field Flux
deff
dynamic-electric-field-flux
lambda-c-f-q-3-e-emax-2
λC * Fq^3 / eemax^2
|
qmu-primary-canonical charge | Dynamic Electric Field Flux is a canonical QMU unit. \(\frac{{\lambda_C}\,{F_q}^{3}}{{e_{emax}}^{2}}\) |
|
| defi \(\frac{{\lambda_C}^{2}\,{F_q}^{3}}{{e_{emax}}^{2}}\) |
Dynamic Electric Field Intensitydefi
Dynamic Electric Field Intensity
defi
dynamic-electric-field-intensity
lambda-c-2-f-q-3-e-emax-2
λC^2 * Fq^3 / eemax^2
|
qmu-primary-canonical charge | Dynamic Electric Field Intensity is a canonical QMU unit. \(\frac{{\lambda_C}^{2}\,{F_q}^{3}}{{e_{emax}}^{2}}\) |
|
| defo \(\frac{{F_q}^{3}}{{e_{emax}}^{2}}\) |
Dynamic Electric Field Oscillationdefo
Dynamic Electric Field Oscillation
Fq^3 / eemax^2
defo
dynamic-electric-field-oscillation
f-q-3-e-emax-2
|
qmu-primary-canonical charge | Dynamic Electric Field Oscillation is a canonical QMU unit. \(\frac{{F_q}^{3}}{{e_{emax}}^{2}}\) |
|
| dfld \(\frac{1}{{m_e}\,{F_q}}\) |
Displacement Fielddfld
1 / (me * Fq)
1-me-f-q
Displacement Field
dfld
displacement-field
|
qmu-primary-canonical field | Displacement Field is a canonical QMU unit. \(\frac{1}{{m_e}\,{F_q}}\) |
|
| dtrd \({\lambda_C}^{3}\,{F_q}^{2}\) |
Double Toroid or Volume Resonancedtrd
Double Toroid or Volume Resonance
double-toroid-or-volume-resonance
dtrd
lambda-c-3-f-q-2
λC^3 * Fq^2
|
qmu-primary-canonical volume | Double Toroid or Volume Resonance is a canonical QMU unit. \({\lambda_C}^{3}\,{F_q}^{2}\) |
|
| dvef \(\frac{{m_e}\,{F_q}^{2}}{{e_{emax}}^{2}}\) |
Diverging Electric Fielddvef
Diverging Electric Field
diverging-electric-field
dvef
me * Fq^2 / eemax^2
me-f-q-2-e-emax-2
|
qmu-primary-canonical charge | Diverging Electric Field is a canonical QMU unit. \(\frac{{m_e}\,{F_q}^{2}}{{e_{emax}}^{2}}\) |
|
| dynl \(\frac{{\lambda_C}}{{F_q}}\) |
Dynamic Lengthdynl
Dynamic Length
dynamic-length
dynl
lambda-c-f-q
λC / Fq
|
qmu-primary-canonical length | Dynamic Length is a canonical QMU unit. \(\frac{{\lambda_C}}{{F_q}}\) |
|
| ecdp \(\frac{1}{{e_{emax}}^{2}\,{\lambda_C}}\) |
Quantum Electric Charge Displacementecdp
1 / (eemax^2 * λC)
1-e-emax-2-lambda-c
Quantum Electric Charge Displacement
ecdp
quantum-electric-charge-displacement
|
qmu-primary-canonical charge | Quantum Electric Charge Displacement is a canonical QMU unit. \(\frac{1}{{e_{emax}}^{2}\,{\lambda_C}}\) |
|
| ecfx \(\frac{1}{{e_{emax}}^{2}\,{F_q}}\) |
Quantum Electric Charge Fluctuationecfx
1 / (eemax^2 * Fq)
1-e-emax-2-f-q
Quantum Electric Charge Fluctuation
ecfx
quantum-electric-charge-fluctuation
|
qmu-primary-canonical charge | Quantum Electric Charge Fluctuation is a canonical QMU unit. \(\frac{1}{{e_{emax}}^{2}\,{F_q}}\) |
|
| eddy \(mflx^{2}\) |
Eddy Currenteddy
eddy
Eddy Current
mflx^2
eddy-current
mflx-2
|
qmu-primary-canonical current | Eddy Current is a canonical QMU unit. \(mflx^{2}\) |
|
| eemax |
Electron magnetic chargeeemax
Electron magnetic charge
e-emax
eemax
electron-magnetic-charge
magnetic-charge
Magnetic Charge
|
qmu-primary-canonical charge | Magnetic charge is. \(electrostatic\,charge\,scaled\,through\,8π\,and\,the\,fine-structure\,constant\) |
|
| efcd \(\frac{{e_{emax}}^{2}}{{\lambda_C}\,{F_q}}\) |
Quantum Electric Field Conductanceefcd
Quantum Electric Field Conductance
e-emax-2-lambda-c-f-q
eemax^2 / (λC * Fq)
efcd
quantum-electric-field-conductance
|
qmu-primary-canonical conductance | Quantum Electric Field Conductance is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{\lambda_C}\,{F_q}}\) |
|
| efdr \({e_{emax}}^{2}\,{\lambda_C}\,{F_q}^{3}\) |
Quantum Electric Field Dynamic Responsivityefdr
Quantum Electric Field Dynamic Responsivity
e-emax-2-lambda-c-f-q-3
eemax^2 * λC * Fq^3
efdr
quantum-electric-field-dynamic-responsivity
|
qmu-primary-canonical charge | Quantum Electric Field Dynamic Responsivity is a canonical QMU unit. \({e_{emax}}^{2}\,{\lambda_C}\,{F_q}^{3}\) |
|
| efld \(\frac{{\lambda_C}^{3}\,{F_q}}{{e_{emax}}^{2}}\) |
Electric Fieldefld
Electric Field
efld
electric-field
lambda-c-3-f-q-e-emax-2
λC^3 * Fq / eemax^2
|
qmu-primary-canonical charge | Electric Field is a canonical QMU unit. \(\frac{{\lambda_C}^{3}\,{F_q}}{{e_{emax}}^{2}}\) |
|
| efpt \(\frac{{e_{emax}}^{2}}{{F_q}}\) |
Quantum Electric Field Permittivityefpt
Quantum Electric Field Permittivity
e-emax-2-f-q
eemax^2 / Fq
efpt
quantum-electric-field-permittivity
|
qmu-primary-canonical charge | Quantum Electric Field Permittivity is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{F_q}}\) |
|
| efrs \(\frac{{e_{emax}}^{2}}{{\lambda_C}^{2}\,{F_q}^{2}}\) |
Quantum Electric Field Resonanceefrs
Quantum Electric Field Resonance
e-emax-2-lambda-c-2-f-q-2
eemax^2 / (λC^2 * Fq^2)
efrs
quantum-electric-field-resonance
|
qmu-primary-canonical charge | Quantum Electric Field Resonance is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{\lambda_C}^{2}\,{F_q}^{2}}\) |
|
| efsu \(\frac{{e_{emax}}^{2}}{{F_q}^{2}}\) |
Quantum Electric Field Susceptibilityefsu
Quantum Electric Field Susceptibility
e-emax-2-f-q-2
eemax^2 / Fq^2
efsu
quantum-electric-field-susceptibility
|
qmu-primary-canonical charge | Quantum Electric Field Susceptibility is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{F_q}^{2}}\) |
|
| efti \({e_{emax}}^{2}\,{F_q}^{3}\) |
Quantum Electric Field Temporal Intensityefti
Quantum Electric Field Temporal Intensity
e-emax-2-f-q-3
eemax^2 * Fq^3
efti
quantum-electric-field-temporal-intensity
|
qmu-primary-canonical charge | Quantum Electric Field Temporal Intensity is a canonical QMU unit. \({e_{emax}}^{2}\,{F_q}^{3}\) |
|
| efva \({e_{emax}}^{2}\,{\lambda_C}^{3}\,{F_q}^{2}\) |
Quantum Electric Field Volumetric Adaptabilityefva
Quantum Electric Field Volumetric Adaptability
e-emax-2-lambda-c-3-f-q-2
eemax^2 * λC^3 * Fq^2
efva
quantum-electric-field-volumetric-adaptability
|
qmu-primary-canonical charge | Quantum Electric Field Volumetric Adaptability is a canonical QMU unit. \({e_{emax}}^{2}\,{\lambda_C}^{3}\,{F_q}^{2}\) |
|
| efvc \({e_{emax}}^{2}\,{\lambda_C}^{3}\,{F_q}\) |
Quantum Electric Field Volumetric Complianceefvc
Quantum Electric Field Volumetric Compliance
e-emax-2-lambda-c-3-f-q
eemax^2 * λC^3 * Fq
efvc
quantum-electric-field-volumetric-compliance
|
qmu-primary-canonical charge | Quantum Electric Field Volumetric Compliance is a canonical QMU unit. \({e_{emax}}^{2}\,{\lambda_C}^{3}\,{F_q}\) |
|
| efvr \({e_{emax}}^{2}\,{\lambda_C}^{3}\,{F_q}^{3}\) |
Quantum Electric Field Volumetric Resonanceefvr
Quantum Electric Field Volumetric Resonance
e-emax-2-lambda-c-3-f-q-3
eemax^2 * λC^3 * Fq^3
efvr
quantum-electric-field-volumetric-resonance
|
qmu-primary-canonical charge | Quantum Electric Field Volumetric Resonance is a canonical QMU unit. \({e_{emax}}^{2}\,{\lambda_C}^{3}\,{F_q}^{3}\) |
|
| efxd \(\frac{{e_{emax}}^{2}}{{\lambda_C}^{2}}\) |
Electric Flux Densityefxd
Electric Flux Density
e-emax-2-lambda-c-2
eemax^2 / λC^2
efxd
electric-flux-density
|
qmu-primary-canonical charge | Electric Flux Density is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{\lambda_C}^{2}}\) |
|
| elcg \(\frac{{e_{emax}}^{2}}{{\lambda_C}}\) |
Electric Charge Gradientelcg
Electric Charge Gradient
e-emax-2-lambda-c
eemax^2 / λC
elcg
electric-charge-gradient
|
qmu-primary-canonical charge | Electric Charge Gradient is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{\lambda_C}}\) |
|
| electron-mass \({m_e}\) |
Electron Masselectron-mass
Electron Mass
electron-mass
m-e
{m_e}
|
base-qmu mass | Electron mass is the QMU mass base unit. | |
| electrostatic-charge \(e^{2}\) |
Electrostatic Chargeelectrostatic-charge
Electrostatic Charge
e-2
e^2
electrostatic-charge
|
base-qmu charge | Electrostatic charge is the QMU electrostatic charge basis represented as elementary charge squared. | |
| elfs \(\frac{{m_e}\,{\lambda_C}\,{F_q}^{2}}{{e_{emax}}^{2}}\) |
Electric Field Strengthelfs
Electric Field Strength
electric-field-strength
elfs
me * λC * Fq^2 / eemax^2
me-lambda-c-f-q-2-e-emax-2
|
qmu-primary-canonical charge | Electric Field Strength is a canonical QMU unit. \(\frac{{m_e}\,{\lambda_C}\,{F_q}^{2}}{{e_{emax}}^{2}}\) |
|
| emic \(\frac{{e_{emax}}^{4}}{{m_e}\,{\lambda_C}\,{F_q}^{2}}\) |
Electromagnetic Interaction Coefficientemic
Electromagnetic Interaction Coefficient
e-emax-4-me-lambda-c-f-q-2
eemax^4 / (me * λC * Fq^2)
electromagnetic-interaction-coefficient
emic
|
qmu-primary-canonical charge | Electromagnetic Interaction Coefficient is a canonical QMU unit. \(\frac{{e_{emax}}^{4}}{{m_e}\,{\lambda_C}\,{F_q}^{2}}\) |
|
| emro \(\frac{{e_{emax}}^{4}}{{m_e}\,{\lambda_C}\,{F_q}}\) |
Electromagnetic Ratioemro
Electromagnetic Ratio
e-emax-4-me-lambda-c-f-q
eemax^4 / (me * λC * Fq)
electromagnetic-ratio
emro
|
qmu-primary-canonical charge | Electromagnetic Ratio is a canonical QMU unit. \(\frac{{e_{emax}}^{4}}{{m_e}\,{\lambda_C}\,{F_q}}\) |
|
| enrg \({m_e}\,{\lambda_C}^{2}\,{F_q}^{2}\) |
Energyenrg
Energy
energy
enrg
me * λC^2 * Fq^2
me-lambda-c-2-f-q-2
|
qmu-primary-canonical area | Energy is a canonical QMU unit. \({m_e}\,{\lambda_C}^{2}\,{F_q}^{2}\) |
|
| exdf \(\frac{{e_{emax}}^{2}}{{m_e}\,{\lambda_C}\,{F_q}}\) |
Exposure Diffusion Fluxexdf
Exposure Diffusion Flux
e-emax-2-me-lambda-c-f-q
eemax^2 / (me * λC * Fq)
exdf
exposure-diffusion-flux
|
qmu-primary-canonical charge | Exposure Diffusion Flux is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{m_e}\,{\lambda_C}\,{F_q}}\) |
|
| expr \(\frac{{e_{emax}}^{2}}{{m_e}}\) |
Exposureexpr
Exposure
e-emax-2-me
eemax^2 / me
exposure
expr
|
qmu-primary-canonical charge | Exposure is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{m_e}}\) |
|
| fdns \(\frac{{m_e}\,{F_q}^{2}}{{\lambda_C}^{2}}\) |
Force Densityfdns
Force Density
fdns
force-density
me * Fq^2 / λC^2
me-f-q-2-lambda-c-2
|
qmu-primary-canonical area | Force Density is a canonical QMU unit. \(\frac{{m_e}\,{F_q}^{2}}{{\lambda_C}^{2}}\) |
|
| ffeq \(\frac{{m_e}\,{\lambda_C}^{3}}{{e_{emax}}^{4}}\) |
Flux Flow Equilibriumffeq
Flux Flow Equilibrium
ffeq
flux-flow-equilibrium
me * λC^3 / eemax^4
me-lambda-c-3-e-emax-4
|
qmu-primary-canonical charge | Flux Flow Equilibrium is a canonical QMU unit. \(\frac{{m_e}\,{\lambda_C}^{3}}{{e_{emax}}^{4}}\) |
|
| fint \(\frac{1}{{\lambda_C}^{3}}\) |
Field Intensityfint
1 / λC^3
1-lambda-c-3
Field Intensity
field-intensity
fint
|
qmu-primary-canonical field | Field Intensity is a canonical QMU unit. \(\frac{1}{{\lambda_C}^{3}}\) |
|
| flow \({\lambda_C}^{3}\,{F_q}\) |
Flowflow
Flow
flow
lambda-c-3-f-q
λC^3 * Fq
|
qmu-primary-canonical volume | Flow is a canonical QMU unit. \({\lambda_C}^{3}\,{F_q}\) |
|
| forc \({m_e}\,{\lambda_C}\,{F_q}^{2}\) |
Forceforc
Force
forc
force
me * λC * Fq^2
me-lambda-c-f-q-2
|
qmu-primary-canonical length | Force is a canonical QMU unit. \({m_e}\,{\lambda_C}\,{F_q}^{2}\) |
|
| freq |
Quantum frequencyfreq
Quantum frequency
freq
quantum-frequency
Quantum Frequency
{F_q}
f-q
|
qmu-primary-canonical frequency | Quantum frequency is the QMU temporal base rate, expressed by photon velocity divided by Compton length. | |
| fric \(\frac{{m_e}\,{\lambda_C}^{3}\,{F_q}^{2}}{{e_{emax}}^{4}}\) |
Frictionfric
Friction
fric
friction
me * λC^3 * Fq^2 / eemax^4
me-lambda-c-3-f-q-2-e-emax-4
|
qmu-primary-canonical charge | Friction is a canonical QMU unit. \(\frac{{m_e}\,{\lambda_C}^{3}\,{F_q}^{2}}{{e_{emax}}^{4}}\) |
|
| hepl \(\frac{{\lambda_C}}{{F_q}^{3}}\) |
Helical Path Lengthhepl
Helical Path Length
helical-path-length
hepl
lambda-c-f-q-3
λC / Fq^3
|
qmu-primary-canonical length | Helical Path Length is a canonical QMU unit. \(\frac{{\lambda_C}}{{F_q}^{3}}\) |
|
| indc \(\frac{{m_e}\,{\lambda_C}^{2}}{{e_{emax}}^{2}}\) |
Inductanceindc
Inductance
indc
inductance
me * λC^2 / eemax^2
me-lambda-c-2-e-emax-2
|
qmu-primary-canonical inductance | Inductance is a canonical QMU unit. \(\frac{{m_e}\,{\lambda_C}^{2}}{{e_{emax}}^{2}}\) |
|
| inpr \(\frac{1}{{m_e}\,{\lambda_C}^{3}\,{F_q}^{2}}\) |
Innate Particulate Resolvabilityinpr
1 / (me * λC^3 * Fq^2)
1-me-lambda-c-3-f-q-2
Innate Particulate Resolvability
innate-particulate-resolvability
inpr
|
qmu-primary-canonical volume | Innate Particulate Resolvability is a canonical QMU unit. \(\frac{1}{{m_e}\,{\lambda_C}^{3}\,{F_q}^{2}}\) |
|
| ints \({m_e}\,{F_q}\) |
Intensityints
Intensity
intensity
ints
me * Fq
me-f-q
|
qmu-primary-canonical mass | Intensity is a canonical QMU unit. \({m_e}\,{F_q}\) |
|
| invr \(\frac{1}{{\lambda_C}^{3}\,{F_q}^{2}}\) |
Inverse Volume Resonanceinvr
1 / (λC^3 * Fq^2)
1-lambda-c-3-f-q-2
Inverse Volume Resonance
inverse-volume-resonance
invr
|
qmu-primary-canonical volume | Inverse Volume Resonance is a canonical QMU unit. \(\frac{1}{{\lambda_C}^{3}\,{F_q}^{2}}\) |
|
| irrd \({m_e}\,{F_q}^{3}\) |
Irradianceirrd
Irradiance
irradiance
irrd
me * Fq^3
me-f-q-3
|
qmu-primary-canonical mass | Irradiance is a canonical QMU unit. \({m_e}\,{F_q}^{3}\) |
|
| kfcn \(\frac{{m_e}\,{\lambda_C}^{2}\,{F_q}^{2}}{{e_{emax}}^{4}}\) |
Kinetic Frictionkfcn
Kinetic Friction
kfcn
kinetic-friction
me * λC^2 * Fq^2 / eemax^4
me-lambda-c-2-f-q-2-e-emax-4
|
qmu-primary-canonical charge | Kinetic Friction is a canonical QMU unit. \(\frac{{m_e}\,{\lambda_C}^{2}\,{F_q}^{2}}{{e_{emax}}^{4}}\) |
|
| ldns \(\frac{{m_e}}{{\lambda_C}}\) |
Length Densityldns
Length Density
ldns
length-density
me / λC
me-lambda-c
|
qmu-primary-canonical length | Length Density is a canonical QMU unit. \(\frac{{m_e}}{{\lambda_C}}\) |
|
| ldoc \(\frac{{m_e}}{{\lambda_C}\,{F_q}^{2}}\) |
Length Density Orbital Coefficientldoc
Length Density Orbital Coefficient
ldoc
length-density-orbital-coefficient
me / (λC * Fq^2)
me-lambda-c-f-q-2
|
qmu-primary-canonical length | Length Density Orbital Coefficient is a canonical QMU unit. \(\frac{{m_e}}{{\lambda_C}\,{F_q}^{2}}\) |
|
| ldqr \(\frac{{m_e}}{{\lambda_C}\,{F_q}^{3}}\) |
Length Density Quantum Ratioldqr
Length Density Quantum Ratio
ldqr
length-density-quantum-ratio
me / (λC * Fq^3)
me-lambda-c-f-q-3
|
qmu-primary-canonical length | Length Density Quantum Ratio is a canonical QMU unit. \(\frac{{m_e}}{{\lambda_C}\,{F_q}^{3}}\) |
|
| ldtf \(\frac{{m_e}}{{\lambda_C}\,{F_q}}\) |
Length Density Temporal Factorldtf
Length Density Temporal Factor
ldtf
length-density-temporal-factor
me / (λC * Fq)
me-lambda-c-f-q
|
qmu-primary-canonical length | Length Density Temporal Factor is a canonical QMU unit. \(\frac{{m_e}}{{\lambda_C}\,{F_q}}\) |
|
| leng |
Compton wavelengthleng
Compton wavelength
compton-wavelength
leng
compton-length
Compton Length
{\lambda_C}
|
qmu-primary-canonical length | Compton length is the QMU length base unit. | |
| ligt \({m_e}\,{\lambda_C}^{3}\,{F_q}^{3}\) |
Lightligt
Light
light
ligt
me * λC^3 * Fq^3
me-lambda-c-3-f-q-3
|
qmu-primary-canonical volume | Light is a canonical QMU unit. \({m_e}\,{\lambda_C}^{3}\,{F_q}^{3}\) |
|
| lint \({m_e}\,{\lambda_C}\,{F_q}^{3}\) |
Light Intensitylint
Light Intensity
light-intensity
lint
me * λC * Fq^3
me-lambda-c-f-q-3
|
qmu-primary-canonical length | Light Intensity is a canonical QMU unit. \({m_e}\,{\lambda_C}\,{F_q}^{3}\) |
|
| magm \({e_{emax}}^{2}\,{\lambda_C}^{2}\,{F_q}\) |
Magnetic Momentmagm
Magnetic Moment
e-emax-2-lambda-c-2-f-q
eemax^2 * λC^2 * Fq
magm
magnetic-moment
|
qmu-primary-canonical charge | Magnetic Moment is a canonical QMU unit. \({e_{emax}}^{2}\,{\lambda_C}^{2}\,{F_q}\) |
|
| magnetic-charge \({e_{emax}}^{2}\) |
Magnetic Chargemagnetic-charge
Magnetic Charge
e-emax-2
magnetic-charge
{e_{emax}}^{2}
|
derived-qmu charge | Magnetic charge is. \(electrostatic\,charge\,scaled\,through\,8π\,and\,the\,fine-structure\,constant\) |
|
| magnetic-flux \(mflx\) |
Magnetic Fluxmagnetic-flux
Magnetic Flux
magnetic-flux
mflx
|
derived-qmu flux | Magnetic flux is expressed as {m_e}{\lambda_C}^{2}{F_q}/{e_{emax}}^{2}. | |
| magp \(\frac{{m_e}\,{\lambda_C}^{2}}{{e_{emax}}^{4}}\) |
Magnetic Permeancemagp
Magnetic Permeance
magnetic-permeance
magp
me * λC^2 / eemax^4
me-lambda-c-2-e-emax-4
|
qmu-primary-canonical charge | Magnetic Permeance is a canonical QMU unit. \(\frac{{m_e}\,{\lambda_C}^{2}}{{e_{emax}}^{4}}\) |
|
| magr \(\frac{{m_e}\,{\lambda_C}\,{F_q}}{{e_{emax}}^{2}}\) |
Magnetic Rigiditymagr
Magnetic Rigidity
magnetic-rigidity
magr
me * λC * Fq / eemax^2
me-lambda-c-f-q-e-emax-2
|
qmu-primary-canonical charge | Magnetic Rigidity is a canonical QMU unit. \(\frac{{m_e}\,{\lambda_C}\,{F_q}}{{e_{emax}}^{2}}\) |
|
| masc \(\frac{{e_{emax}}^{4}}{{m_e}\,{F_q}^{2}}\) |
Magnetic Spatial Compliancemasc
Magnetic Spatial Compliance
e-emax-4-me-f-q-2
eemax^4 / (me * Fq^2)
magnetic-spatial-compliance
masc
|
qmu-primary-canonical charge | Magnetic Spatial Compliance is a canonical QMU unit. \(\frac{{e_{emax}}^{4}}{{m_e}\,{F_q}^{2}}\) |
|
| masd \(\frac{{m_e}}{{\lambda_C}^{3}}\) |
Mass Densitymasd
Mass Density
masd
mass-density
me / λC^3
me-lambda-c-3
|
qmu-primary-canonical volume | Mass Density is a canonical QMU unit. \(\frac{{m_e}}{{\lambda_C}^{3}}\) |
|
| mass \({m_e}\) |
Massmass
Mass
mass
me
electron-mass
Electron Mass
{m_e}
|
qmu-primary-canonical mass | Electron mass is the QMU mass base unit. | |
| mcaf \(\frac{1}{{e_{emax}}^{2}}\) |
Magnetic Charge Affinitymcaf
1 / eemax^2
1-e-emax-2
Magnetic Charge Affinity
magnetic-charge-affinity
mcaf
|
qmu-primary-canonical charge | Magnetic Charge Affinity is a canonical QMU unit. \(\frac{1}{{e_{emax}}^{2}}\) |
|
| mcdf \(\frac{{e_{emax}}^{2}}{{\lambda_C}^{2}\,{F_q}}\) |
Magnetic Charge Density Frequencymcdf
Magnetic Charge Density Frequency
e-emax-2-lambda-c-2-f-q
eemax^2 / (λC^2 * Fq)
magnetic-charge-density-frequency
mcdf
|
qmu-primary-canonical charge | Magnetic Charge Density Frequency is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{\lambda_C}^{2}\,{F_q}}\) |
|
| mcdr \(\frac{{m_e}\,{F_q}}{{\lambda_C}^{3}\,{e_{emax}}^{2}}\) |
Magnetic Charge Distribution per Rotationmcdr
Magnetic Charge Distribution per Rotation
magnetic-charge-distribution-per-rotation
mcdr
me * Fq / (λC^3 * eemax^2)
me-f-q-lambda-c-3-e-emax-2
|
qmu-primary-canonical charge | Magnetic Charge Distribution per Rotation is a canonical QMU unit. \(\frac{{m_e}\,{F_q}}{{\lambda_C}^{3}\,{e_{emax}}^{2}}\) |
|
| mchg \(\frac{{m_e}}{{e_{emax}}^{2}}\) |
Magnetismmchg
Magnetism
magnetism
mchg
me / eemax^2
me-e-emax-2
|
qmu-primary-canonical charge | Magnetism is a canonical QMU unit. \(\frac{{m_e}}{{e_{emax}}^{2}}\) |
|
| mcpp \(\frac{{m_e}\,{F_q}^{2}}{{\lambda_C}^{3}\,{e_{emax}}^{2}}\) |
Magnetic Charge per Photonmcpp
Magnetic Charge per Photon
magnetic-charge-per-photon
mcpp
me * Fq^2 / (λC^3 * eemax^2)
me-f-q-2-lambda-c-3-e-emax-2
|
qmu-primary-canonical charge | Magnetic Charge per Photon is a canonical QMU unit. \(\frac{{m_e}\,{F_q}^{2}}{{\lambda_C}^{3}\,{e_{emax}}^{2}}\) |
|
| mcrd \(\frac{{m_e}}{{\lambda_C}^{3}\,{e_{emax}}^{2}}\) |
Magnetic Charge Rotational Densitymcrd
Magnetic Charge Rotational Density
magnetic-charge-rotational-density
mcrd
me / (λC^3 * eemax^2)
me-lambda-c-3-e-emax-2
|
qmu-primary-canonical charge | Magnetic Charge Rotational Density is a canonical QMU unit. \(\frac{{m_e}}{{\lambda_C}^{3}\,{e_{emax}}^{2}}\) |
|
| mcri \(\frac{curr}{mflx}\) |
Magnetic Current Impedancemcri
Magnetic Current Impedance
curr / mflx
curr-mflx
magnetic-current-impedance
mcri
|
qmu-primary-canonical resistance | Magnetic Current Impedance is a canonical QMU unit. \(\frac{curr}{mflx}\) |
|
| mcup \(\frac{sfch}{potn}\) |
Magnetic Charge per Unit Potentialmcup
Magnetic Charge per Unit Potential
magnetic-charge-per-unit-potential
mcup
sfch / potn
sfch-potn
|
qmu-primary-canonical charge | Magnetic Charge per Unit Potential is a canonical QMU unit. \(\frac{sfch}{potn}\) |
|
| mcur \(\frac{{F_q}}{{e_{emax}}^{2}}\) |
Magnetic Currentmcur
Fq / eemax^2
Magnetic Current
f-q-e-emax-2
magnetic-current
mcur
|
qmu-primary-canonical current | Magnetic Current is a canonical QMU unit. \(\frac{{F_q}}{{e_{emax}}^{2}}\) |
|
| mdif \(\frac{{m_e}\,{\lambda_C}\,{F_q}}{{e_{emax}}^{4}}\) |
Magnetic Diffusion Impedancemdif
Magnetic Diffusion Impedance
magnetic-diffusion-impedance
mdif
me * λC * Fq / eemax^4
me-lambda-c-f-q-e-emax-4
|
qmu-primary-canonical resistance | Magnetic Diffusion Impedance is a canonical QMU unit. \(\frac{{m_e}\,{\lambda_C}\,{F_q}}{{e_{emax}}^{4}}\) |
|
| mfde \(\frac{{e_{emax}}^{2}}{{m_e}\,{\lambda_C}^{3}}\) |
Magnetic Field Exposuremfde
Magnetic Field Exposure
e-emax-2-me-lambda-c-3
eemax^2 / (me * λC^3)
magnetic-field-exposure
mfde
|
qmu-primary-canonical charge | Magnetic Field Exposure is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{m_e}\,{\lambda_C}^{3}}\) |
|
| mfdi \(\frac{{e_{emax}}^{2}\,{F_q}}{{\lambda_C}}\) |
Magnetic Field Intensitymfdi
Magnetic Field Intensity
e-emax-2-f-q-lambda-c
eemax^2 * Fq / λC
magnetic-field-intensity
mfdi
|
qmu-primary-canonical charge | Magnetic Field Intensity is a canonical QMU unit. \(\frac{{e_{emax}}^{2}\,{F_q}}{{\lambda_C}}\) |
|
| mfdr \(\frac{1}{chgr\,mfxd}\) |
Magnetic Field Resistancemfdr
1 / (chgr * mfxd)
1-chgr-mfxd
Magnetic Field Resistance
magnetic-field-resistance
mfdr
|
qmu-primary-canonical resistance | Magnetic Field Resistance is a canonical QMU unit. \(\frac{1}{chgr\,mfxd}\) |
|
| mfdw \(\frac{{m_e}\,{\lambda_C}\,{F_q}^{2}}{{e_{emax}}^{4}}\) |
Magnetic Flux Density Wavemfdw
Magnetic Flux Density Wave
magnetic-flux-density-wave
me * λC * Fq^2 / eemax^4
me-lambda-c-f-q-2-e-emax-4
mfdw
|
qmu-primary-canonical charge | Magnetic Flux Density Wave is a canonical QMU unit. \(\frac{{m_e}\,{\lambda_C}\,{F_q}^{2}}{{e_{emax}}^{4}}\) |
|
| mfen \(mfdi\,cden\) |
Magnetic Field Energymfen
Magnetic Field Energy
magnetic-field-energy
mfdi * cden
mfdi-cden
mfen
|
qmu-primary-canonical magnetic | Magnetic Field Energy is a canonical QMU unit. \(mfdi\,cden\) |
|
| mfir \(\frac{{e_{emax}}^{2}}{{m_e}\,{\lambda_C}^{3}\,{F_q}}\) |
Magnetic Flux Intensity Ratiomfir
Magnetic Flux Intensity Ratio
e-emax-2-me-lambda-c-3-f-q
eemax^2 / (me * λC^3 * Fq)
magnetic-flux-intensity-ratio
mfir
|
qmu-primary-canonical charge | Magnetic Flux Intensity Ratio is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{m_e}\,{\lambda_C}^{3}\,{F_q}}\) |
|
| mfld \(\frac{{m_e}\,{\lambda_C}^{3}\,{F_q}}{{e_{emax}}^{2}}\) |
Magnetic Fieldmfld
Magnetic Field
magnetic-field
me * λC^3 * Fq / eemax^2
me-lambda-c-3-f-q-e-emax-2
mfld
|
qmu-primary-canonical charge | Magnetic Field is a canonical QMU unit. \(\frac{{m_e}\,{\lambda_C}^{3}\,{F_q}}{{e_{emax}}^{2}}\) |
|
| mflx \(\frac{{m_e}\,{\lambda_C}^{2}\,{F_q}}{{e_{emax}}^{2}}\) |
Magnetic Fluxmflx
Magnetic Flux
magnetic-flux
me * λC^2 * Fq / eemax^2
me-lambda-c-2-f-q-e-emax-2
mflx
|
qmu-primary-canonical flux | Magnetic flux is expressed as {m_e}{\lambda_C}^{2}{F_q}/{e_{emax}}^{2}. | |
| mfxd \(\frac{{m_e}\,{F_q}}{{e_{emax}}^{2}}\) |
Magnetic Flux Densitymfxd
Magnetic Flux Density
magnetic-flux-density
me * Fq / eemax^2
me-f-q-e-emax-2
mfxd
|
qmu-primary-canonical charge | Magnetic Flux Density is a canonical QMU unit. \(\frac{{m_e}\,{F_q}}{{e_{emax}}^{2}}\) |
|
| mgfi \(\frac{{m_e}\,{\lambda_C}^{3}\,{F_q}}{{e_{emax}}^{4}}\) |
Magnetic Flow Impedancemgfi
Magnetic Flow Impedance
magnetic-flow-impedance
me * λC^3 * Fq / eemax^4
me-lambda-c-3-f-q-e-emax-4
mgfi
|
qmu-primary-canonical resistance | Magnetic Flow Impedance is a canonical QMU unit. \(\frac{{m_e}\,{\lambda_C}^{3}\,{F_q}}{{e_{emax}}^{4}}\) |
|
| minr \({m_e}\,{\lambda_C}^{2}\) |
Moment of Inertiaminr
Moment of Inertia
me * λC^2
me-lambda-c-2
minr
moment-of-inertia
|
qmu-primary-canonical area | Moment of Inertia is a canonical QMU unit. \({m_e}\,{\lambda_C}^{2}\) |
|
| momd \(\frac{{m_e}\,{F_q}}{{\lambda_C}^{2}}\) |
Momentum Densitymomd
Momentum Density
me * Fq / λC^2
me-f-q-lambda-c-2
momd
momentum-density
|
qmu-primary-canonical area | Momentum Density is a canonical QMU unit. \(\frac{{m_e}\,{F_q}}{{\lambda_C}^{2}}\) |
|
| momt \({m_e}\,{\lambda_C}\,{F_q}\) |
Momentummomt
Momentum
me * λC * Fq
me-lambda-c-f-q
momentum
momt
|
qmu-primary-canonical length | Momentum is a canonical QMU unit. \({m_e}\,{\lambda_C}\,{F_q}\) |
|
| mopp \(\frac{{e_{emax}}^{4}}{{m_e}\,{\lambda_C}}\) |
Magnetic Oppositionmopp
Magnetic Opposition
e-emax-4-me-lambda-c
eemax^4 / (me * λC)
magnetic-opposition
mopp
|
qmu-primary-canonical charge | Magnetic Opposition is a canonical QMU unit. \(\frac{{e_{emax}}^{4}}{{m_e}\,{\lambda_C}}\) |
|
| morc \(\frac{1}{{\lambda_C}\,{F_q}^{2}}\) |
Momentum Resistance Coefficientmorc
1 / (λC * Fq^2)
1-lambda-c-f-q-2
Momentum Resistance Coefficient
momentum-resistance-coefficient
morc
|
qmu-primary-canonical resistance | Momentum Resistance Coefficient is a canonical QMU unit. \(\frac{1}{{\lambda_C}\,{F_q}^{2}}\) |
|
| mrcr \(\frac{{m_e}}{{\lambda_C}^{3}\,{F_q}^{2}}\) |
Mass-Resonance Coupling Ratiomrcr
Mass-Resonance Coupling Ratio
mass-resonance-coupling-ratio
me / (λC^3 * Fq^2)
me-lambda-c-3-f-q-2
mrcr
|
qmu-primary-canonical volume | Mass-Resonance Coupling Ratio is a canonical QMU unit. \(\frac{{m_e}}{{\lambda_C}^{3}\,{F_q}^{2}}\) |
|
| mrlc \(\frac{curr}{mflx}\) |
Magnetic Reluctancemrlc
Magnetic Reluctance
curr / mflx
curr-mflx
magnetic-reluctance
mrlc
|
qmu-primary-canonical resistance | Magnetic Reluctance is a canonical QMU unit. \(\frac{curr}{mflx}\) |
|
| msir \(\frac{area}{resn}\) |
Magneto-Spatial Impedance Ratiomsir
Magneto-Spatial Impedance Ratio
area / resn
area-resn
magneto-spatial-impedance-ratio
msir
|
qmu-primary-canonical resistance | Magneto-Spatial Impedance Ratio is a canonical QMU unit. \(\frac{area}{resn}\) |
|
| mvlm \(\frac{{m_e}\,{\lambda_C}^{3}}{{e_{emax}}^{2}}\) |
Magnetic Volumemvlm
Magnetic Volume
magnetic-volume
me * λC^3 / eemax^2
me-lambda-c-3-e-emax-2
mvlm
|
qmu-primary-canonical charge | Magnetic Volume is a canonical QMU unit. \(\frac{{m_e}\,{\lambda_C}^{3}}{{e_{emax}}^{2}}\) |
|
| ocmp \(\frac{1}{{m_e}\,{\lambda_C}^{3}\,{F_q}^{3}}\) |
Optical Complianceocmp
1 / (me * λC^3 * Fq^3)
1-me-lambda-c-3-f-q-3
Optical Compliance
ocmp
optical-compliance
|
qmu-primary-canonical volume | Optical Compliance is a canonical QMU unit. \(\frac{1}{{m_e}\,{\lambda_C}^{3}\,{F_q}^{3}}\) |
|
| orbt \(\frac{1}{{F_q}^{2}}\) |
Orbitorbt
1 / Fq^2
1-f-q-2
Orbit
orbit
orbt
|
qmu-primary-canonical compound-qmu | Orbit is a canonical QMU unit. \(\frac{1}{{F_q}^{2}}\) |
|
| ovev \(\frac{{\lambda_C}^{3}}{{F_q}^{3}}\) |
Orbital Volume Evolutionovev
Orbital Volume Evolution
lambda-c-3-f-q-3
orbital-volume-evolution
ovev
λC^3 / Fq^3
|
qmu-primary-canonical volume | Orbital Volume Evolution is a canonical QMU unit. \(\frac{{\lambda_C}^{3}}{{F_q}^{3}}\) |
|
| pccf \(\frac{{m_e}\,{F_q}}{{e_{emax}}^{4}}\) |
Potential Charge Concentration Factorpccf
Potential Charge Concentration Factor
me * Fq / eemax^4
me-f-q-e-emax-4
pccf
potential-charge-concentration-factor
|
qmu-primary-canonical charge | Potential Charge Concentration Factor is a canonical QMU unit. \(\frac{{m_e}\,{F_q}}{{e_{emax}}^{4}}\) |
|
| pdrt \(\frac{{m_e}\,{F_q}^{3}}{{\lambda_C}}\) |
Pressure Diffusion Ratepdrt
Pressure Diffusion Rate
me * Fq^3 / λC
me-f-q-3-lambda-c
pdrt
pressure-diffusion-rate
|
qmu-primary-canonical length | Pressure Diffusion Rate is a canonical QMU unit. \(\frac{{m_e}\,{F_q}^{3}}{{\lambda_C}}\) |
|
| perm \(\frac{{m_e}\,{\lambda_C}}{{e_{emax}}^{2}}\) |
Permeabilityperm
Permeability
me * λC / eemax^2
me-lambda-c-e-emax-2
perm
permeability
|
qmu-primary-canonical charge | Permeability is a canonical QMU unit. \(\frac{{m_e}\,{\lambda_C}}{{e_{emax}}^{2}}\) |
|
| phtn \({m_e}\,{\lambda_C}^{3}\,{F_q}^{2}\) |
Photonphtn
Photon
me * λC^3 * Fq^2
me-lambda-c-3-f-q-2
photon
phtn
|
qmu-primary-canonical volume | Photon is a canonical QMU unit. \({m_e}\,{\lambda_C}^{3}\,{F_q}^{2}\) |
|
| plsm \({e_{emax}}^{2}\,{\lambda_C}^{2}\,{F_q}^{2}\) |
Plasmaplsm
Plasma
e-emax-2-lambda-c-2-f-q-2
eemax^2 * λC^2 * Fq^2
plasma
plsm
|
qmu-primary-canonical charge | Plasma is a canonical QMU unit. \({e_{emax}}^{2}\,{\lambda_C}^{2}\,{F_q}^{2}\) |
|
| potn \(\frac{{m_e}\,{\lambda_C}^{2}\,{F_q}^{2}}{{e_{emax}}^{2}}\) |
Potentialpotn
Potential
me * λC^2 * Fq^2 / eemax^2
me-lambda-c-2-f-q-2-e-emax-2
potential
potn
|
qmu-primary-canonical charge | Potential is a canonical QMU unit. \(\frac{{m_e}\,{\lambda_C}^{2}\,{F_q}^{2}}{{e_{emax}}^{2}}\) |
|
| powr \({m_e}\,{\lambda_C}^{2}\,{F_q}^{3}\) |
Powerpowr
Power
me * λC^2 * Fq^3
me-lambda-c-2-f-q-3
power
powr
|
qmu-primary-canonical area | Power is a canonical QMU unit. \({m_e}\,{\lambda_C}^{2}\,{F_q}^{3}\) |
|
| pres \(\frac{{m_e}\,{F_q}^{2}}{{\lambda_C}}\) |
Pressurepres
Pressure
me * Fq^2 / λC
me-f-q-2-lambda-c
pres
pressure
|
qmu-primary-canonical length | Pressure is a canonical QMU unit. \(\frac{{m_e}\,{F_q}^{2}}{{\lambda_C}}\) |
|
| ptty \(\frac{{e_{emax}}^{2}}{{m_e}\,{\lambda_C}^{3}\,{F_q}^{2}}\) |
Permittivityptty
Permittivity
e-emax-2-me-lambda-c-3-f-q-2
eemax^2 / (me * λC^3 * Fq^2)
permittivity
ptty
|
qmu-primary-canonical charge | Permittivity is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{m_e}\,{\lambda_C}^{3}\,{F_q}^{2}}\) |
|
| qaam \(\frac{{\lambda_C}^{2}\,{F_q}}{{m_e}}\) |
Quantum Aether Angular Mobilityqaam
Quantum Aether Angular Mobility
lambda-c-2-f-q-me
qaam
quantum-aether-angular-mobility
λC^2 * Fq / me
|
qmu-primary-canonical aether | Quantum Aether Angular Mobility is a canonical QMU unit. \(\frac{{\lambda_C}^{2}\,{F_q}}{{m_e}}\) |
|
| qadi \(\frac{{\lambda_C}\,{F_q}^{3}}{{m_e}}\) |
Quantum Aether Dynamic Intensityqadi
Quantum Aether Dynamic Intensity
lambda-c-f-q-3-me
qadi
quantum-aether-dynamic-intensity
λC * Fq^3 / me
|
qmu-primary-canonical aether | Quantum Aether Dynamic Intensity is a canonical QMU unit. \(\frac{{\lambda_C}\,{F_q}^{3}}{{m_e}}\) |
|
| qadm \(\frac{{\lambda_C}\,{F_q}^{2}}{{m_e}}\) |
Quantum Aether Dynamic Mobilityqadm
Quantum Aether Dynamic Mobility
lambda-c-f-q-2-me
qadm
quantum-aether-dynamic-mobility
λC * Fq^2 / me
|
qmu-primary-canonical aether | Quantum Aether Dynamic Mobility is a canonical QMU unit. \(\frac{{\lambda_C}\,{F_q}^{2}}{{m_e}}\) |
|
| qagm \(\frac{{\lambda_C}^{3}\,{F_q}^{2}}{{m_e}}\) |
Quantum Aether Gravitational Mobilityqagm
Quantum Aether Gravitational Mobility
lambda-c-3-f-q-2-me
qagm
quantum-aether-gravitational-mobility
λC^3 * Fq^2 / me
|
qmu-primary-canonical aether | Quantum Aether Gravitational Mobility is a canonical QMU unit. \(\frac{{\lambda_C}^{3}\,{F_q}^{2}}{{m_e}}\) |
|
| qamo \(\frac{{\lambda_C}\,{F_q}}{{m_e}}\) |
Quantum Aether Mobilityqamo
Quantum Aether Mobility
lambda-c-f-q-me
qamo
quantum-aether-mobility
λC * Fq / me
|
qmu-primary-canonical aether | Quantum Aether Mobility is a canonical QMU unit. \(\frac{{\lambda_C}\,{F_q}}{{m_e}}\) |
|
| qanr \({m_e}\,{\lambda_C}^{3}\,{F_q}\) |
Quantum Angular Reachqanr
Quantum Angular Reach
me * λC^3 * Fq
me-lambda-c-3-f-q
qanr
quantum-angular-reach
|
qmu-primary-canonical volume | Quantum Angular Reach is a canonical QMU unit. \({m_e}\,{\lambda_C}^{3}\,{F_q}\) |
|
| qarc \(\frac{{\lambda_C}^{2}}{{m_e}\,{F_q}^{2}}\) |
Quantum Area Resonance Complianceqarc
Quantum Area Resonance Compliance
lambda-c-2-me-f-q-2
qarc
quantum-area-resonance-compliance
λC^2 / (me * Fq^2)
|
qmu-primary-canonical area | Quantum Area Resonance Compliance is a canonical QMU unit. \(\frac{{\lambda_C}^{2}}{{m_e}\,{F_q}^{2}}\) |
|
| qarg \(\frac{1}{{m_e}\,{\lambda_C}^{2}\,{F_q}}\) |
Quantum Angular Receptivity Gaugeqarg
1 / (me * λC^2 * Fq)
1-me-lambda-c-2-f-q
Quantum Angular Receptivity Gauge
qarg
quantum-angular-receptivity-gauge
|
qmu-primary-canonical area | Quantum Angular Receptivity Gauge is a canonical QMU unit. \(\frac{1}{{m_e}\,{\lambda_C}^{2}\,{F_q}}\) |
|
| qari \(\frac{1}{{m_e}\,{\lambda_C}^{2}}\) |
Quantum Area Inertiaqari
1 / (me * λC^2)
1-me-lambda-c-2
Quantum Area Inertia
qari
quantum-area-inertia
|
qmu-primary-canonical area | Quantum Area Inertia is a canonical QMU unit. \(\frac{1}{{m_e}\,{\lambda_C}^{2}}\) |
|
| qasm \(\frac{{\lambda_C}^{2}\,{F_q}^{3}}{{m_e}}\) |
Quantum Aether Surface Oscillation Mobilityqasm
Quantum Aether Surface Oscillation Mobility
lambda-c-2-f-q-3-me
qasm
quantum-aether-surface-oscillation-mobility
λC^2 * Fq^3 / me
|
qmu-primary-canonical aether | Quantum Aether Surface Oscillation Mobility is a canonical QMU unit. \(\frac{{\lambda_C}^{2}\,{F_q}^{3}}{{m_e}}\) |
|
| qatm \(\frac{{\lambda_C}^{2}\,{F_q}^{2}}{{m_e}}\) |
Quantum Aether Thermal Mobilityqatm
Quantum Aether Thermal Mobility
lambda-c-2-f-q-2-me
qatm
quantum-aether-thermal-mobility
λC^2 * Fq^2 / me
|
qmu-primary-canonical aether | Quantum Aether Thermal Mobility is a canonical QMU unit. \(\frac{{\lambda_C}^{2}\,{F_q}^{2}}{{m_e}}\) |
|
| qavm \(\frac{{\lambda_C}^{3}\,{F_q}}{{m_e}}\) |
Quantum Aether Volumetric Flux Mobilityqavm
Quantum Aether Volumetric Flux Mobility
lambda-c-3-f-q-me
qavm
quantum-aether-volumetric-flux-mobility
λC^3 * Fq / me
|
qmu-primary-canonical aether | Quantum Aether Volumetric Flux Mobility is a canonical QMU unit. \(\frac{{\lambda_C}^{3}\,{F_q}}{{m_e}}\) |
|
| qcdd \(\frac{{\lambda_C}^{2}}{{e_{emax}}^{2}\,{F_q}}\) |
Quantum Charge Distribution Dynamicsqcdd
Quantum Charge Distribution Dynamics
lambda-c-2-e-emax-2-f-q
qcdd
quantum-charge-distribution-dynamics
λC^2 / (eemax^2 * Fq)
|
qmu-primary-canonical charge | Quantum Charge Distribution Dynamics is a canonical QMU unit. \(\frac{{\lambda_C}^{2}}{{e_{emax}}^{2}\,{F_q}}\) |
|
| qcdi \(\frac{{e_{emax}}^{2}\,{F_q}^{3}}{{\lambda_C}^{3}}\) |
Quantum Charge Density Intensityqcdi
Quantum Charge Density Intensity
e-emax-2-f-q-3-lambda-c-3
eemax^2 * Fq^3 / λC^3
qcdi
quantum-charge-density-intensity
|
qmu-primary-canonical charge | Quantum Charge Density Intensity is a canonical QMU unit. \(\frac{{e_{emax}}^{2}\,{F_q}^{3}}{{\lambda_C}^{3}}\) |
|
| qcdp \(\frac{{\lambda_C}^{2}}{{e_{emax}}^{2}\,{F_q}^{2}}\) |
Quantum Charge Distribution Periodicityqcdp
Quantum Charge Distribution Periodicity
lambda-c-2-e-emax-2-f-q-2
qcdp
quantum-charge-distribution-periodicity
λC^2 / (eemax^2 * Fq^2)
|
qmu-primary-canonical charge | Quantum Charge Distribution Periodicity is a canonical QMU unit. \(\frac{{\lambda_C}^{2}}{{e_{emax}}^{2}\,{F_q}^{2}}\) |
|
| qcdr \(\frac{{\lambda_C}^{2}}{{e_{emax}}^{2}\,{F_q}^{3}}\) |
Quantum Charge Distribution Resistanceqcdr
Quantum Charge Distribution Resistance
lambda-c-2-e-emax-2-f-q-3
qcdr
quantum-charge-distribution-resistance
λC^2 / (eemax^2 * Fq^3)
|
qmu-primary-canonical resistance | Quantum Charge Distribution Resistance is a canonical QMU unit. \(\frac{{\lambda_C}^{2}}{{e_{emax}}^{2}\,{F_q}^{3}}\) |
|
| qcrd \(\frac{{\lambda_C}}{{e_{emax}}^{2}\,{F_q}}\) |
Quantum Charge Radius Dynamicsqcrd
Quantum Charge Radius Dynamics
lambda-c-e-emax-2-f-q
qcrd
quantum-charge-radius-dynamics
λC / (eemax^2 * Fq)
|
qmu-primary-canonical charge | Quantum Charge Radius Dynamics is a canonical QMU unit. \(\frac{{\lambda_C}}{{e_{emax}}^{2}\,{F_q}}\) |
|
| qcrp \(\frac{{\lambda_C}}{{e_{emax}}^{2}\,{F_q}^{2}}\) |
Quantum Charge Radius Periodicityqcrp
Quantum Charge Radius Periodicity
lambda-c-e-emax-2-f-q-2
qcrp
quantum-charge-radius-periodicity
λC / (eemax^2 * Fq^2)
|
qmu-primary-canonical charge | Quantum Charge Radius Periodicity is a canonical QMU unit. \(\frac{{\lambda_C}}{{e_{emax}}^{2}\,{F_q}^{2}}\) |
|
| qcrr \(\frac{{\lambda_C}}{{e_{emax}}^{2}\,{F_q}^{3}}\) |
Quantum Charge Radius Resistanceqcrr
Quantum Charge Radius Resistance
lambda-c-e-emax-2-f-q-3
qcrr
quantum-charge-radius-resistance
λC / (eemax^2 * Fq^3)
|
qmu-primary-canonical resistance | Quantum Charge Radius Resistance is a canonical QMU unit. \(\frac{{\lambda_C}}{{e_{emax}}^{2}\,{F_q}^{3}}\) |
|
| qdfr \(\frac{1}{{\lambda_C}\,{F_q}^{3}}\) |
Quantum Dynamic Frequency Resistanceqdfr
1 / (λC * Fq^3)
1-lambda-c-f-q-3
Quantum Dynamic Frequency Resistance
qdfr
quantum-dynamic-frequency-resistance
|
qmu-primary-canonical resistance | Quantum Dynamic Frequency Resistance is a canonical QMU unit. \(\frac{1}{{\lambda_C}\,{F_q}^{3}}\) |
|
| qdir \(\frac{{m_e}}{{\lambda_C}^{3}\,{F_q}^{3}}\) |
Quantum Density Intensity Resistanceqdir
Quantum Density Intensity Resistance
me / (λC^3 * Fq^3)
me-lambda-c-3-f-q-3
qdir
quantum-density-intensity-resistance
|
qmu-primary-canonical resistance | Quantum Density Intensity Resistance is a canonical QMU unit. \(\frac{{m_e}}{{\lambda_C}^{3}\,{F_q}^{3}}\) |
|
| qdyf \({\lambda_C}\,{F_q}^{3}\) |
Quantum Dynamic Frequencyqdyf
Quantum Dynamic Frequency
lambda-c-f-q-3
qdyf
quantum-dynamic-frequency
λC * Fq^3
|
qmu-primary-canonical length | Quantum Dynamic Frequency is a canonical QMU unit. \({\lambda_C}\,{F_q}^{3}\) |
|
| qeca \(\frac{1}{{e_{emax}}^{2}\,{\lambda_C}\,{F_q}^{2}}\) |
Quantum Electric Charge Accelerationqeca
1 / (eemax^2 * λC * Fq^2)
1-e-emax-2-lambda-c-f-q-2
Quantum Electric Charge Acceleration
qeca
quantum-electric-charge-acceleration
|
qmu-primary-canonical charge | Quantum Electric Charge Acceleration is a canonical QMU unit. \(\frac{1}{{e_{emax}}^{2}\,{\lambda_C}\,{F_q}^{2}}\) |
|
| qecd \(\frac{1}{{e_{emax}}^{2}\,{\lambda_C}\,{F_q}}\) |
Quantum Electric Charge Driftqecd
1 / (eemax^2 * λC * Fq)
1-e-emax-2-lambda-c-f-q
Quantum Electric Charge Drift
qecd
quantum-electric-charge-drift
|
qmu-primary-canonical charge | Quantum Electric Charge Drift is a canonical QMU unit. \(\frac{1}{{e_{emax}}^{2}\,{\lambda_C}\,{F_q}}\) |
|
| qecf \(\frac{1}{{e_{emax}}^{2}\,{\lambda_C}^{2}\,{F_q}^{2}}\) |
Quantum Electric Charge Fluxqecf
1 / (eemax^2 * λC^2 * Fq^2)
1-e-emax-2-lambda-c-2-f-q-2
Quantum Electric Charge Flux
qecf
quantum-electric-charge-flux
|
qmu-primary-canonical charge | Quantum Electric Charge Flux is a canonical QMU unit. \(\frac{1}{{e_{emax}}^{2}\,{\lambda_C}^{2}\,{F_q}^{2}}\) |
|
| qeci \(\frac{1}{{e_{emax}}^{2}\,{F_q}^{3}}\) |
Quantum Electric Charge Intensityqeci
1 / (eemax^2 * Fq^3)
1-e-emax-2-f-q-3
Quantum Electric Charge Intensity
qeci
quantum-electric-charge-intensity
|
qmu-primary-canonical charge | Quantum Electric Charge Intensity is a canonical QMU unit. \(\frac{1}{{e_{emax}}^{2}\,{F_q}^{3}}\) |
|
| qecj \(\frac{1}{{e_{emax}}^{2}\,{\lambda_C}\,{F_q}^{3}}\) |
Quantum Electric Charge Jerkqecj
1 / (eemax^2 * λC * Fq^3)
1-e-emax-2-lambda-c-f-q-3
Quantum Electric Charge Jerk
qecj
quantum-electric-charge-jerk
|
qmu-primary-canonical charge | Quantum Electric Charge Jerk is a canonical QMU unit. \(\frac{1}{{e_{emax}}^{2}\,{\lambda_C}\,{F_q}^{3}}\) |
|
| qeco \(\frac{1}{{e_{emax}}^{2}\,{F_q}^{2}}\) |
Quantum Electric Charge Oscillationqeco
1 / (eemax^2 * Fq^2)
1-e-emax-2-f-q-2
Quantum Electric Charge Oscillation
qeco
quantum-electric-charge-oscillation
|
qmu-primary-canonical charge | Quantum Electric Charge Oscillation is a canonical QMU unit. \(\frac{1}{{e_{emax}}^{2}\,{F_q}^{2}}\) |
|
| qefc \(\frac{{e_{emax}}^{2}}{{\lambda_C}^{3}\,{F_q}}\) |
Quantum Electric Field Complianceqefc
Quantum Electric Field Compliance
e-emax-2-lambda-c-3-f-q
eemax^2 / (λC^3 * Fq)
qefc
quantum-electric-field-compliance
|
qmu-primary-canonical charge | Quantum Electric Field Compliance is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{\lambda_C}^{3}\,{F_q}}\) |
|
| qefe \(\frac{{e_{emax}}^{2}}{{\lambda_C}\,{F_q}^{2}}\) |
Quantum Electric Field Elasticityqefe
Quantum Electric Field Elasticity
e-emax-2-lambda-c-f-q-2
eemax^2 / (λC * Fq^2)
qefe
quantum-electric-field-elasticity
|
qmu-primary-canonical charge | Quantum Electric Field Elasticity is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{\lambda_C}\,{F_q}^{2}}\) |
|
| qefi \(\frac{{e_{emax}}^{2}\,{F_q}^{3}}{{\lambda_C}^{2}}\) |
Quantum Electric Field Intensityqefi
Quantum Electric Field Intensity
e-emax-2-f-q-3-lambda-c-2
eemax^2 * Fq^3 / λC^2
qefi
quantum-electric-field-intensity
|
qmu-primary-canonical charge | Quantum Electric Field Intensity is a canonical QMU unit. \(\frac{{e_{emax}}^{2}\,{F_q}^{3}}{{\lambda_C}^{2}}\) |
|
| qefp \(\frac{{e_{emax}}^{2}}{{F_q}^{3}}\) |
Quantum Electric Field Permeabilityqefp
Quantum Electric Field Permeability
e-emax-2-f-q-3
eemax^2 / Fq^3
qefp
quantum-electric-field-permeability
|
qmu-primary-canonical charge | Quantum Electric Field Permeability is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{F_q}^{3}}\) |
|
| qefr \(\frac{{e_{emax}}^{2}\,{F_q}^{2}}{{\lambda_C}^{2}}\) |
Quantum Electric Field Resonanceqefr
Quantum Electric Field Resonance
e-emax-2-f-q-2-lambda-c-2
eemax^2 * Fq^2 / λC^2
qefr
quantum-electric-field-resonance
|
qmu-primary-canonical charge | Quantum Electric Field Resonance is a canonical QMU unit. \(\frac{{e_{emax}}^{2}\,{F_q}^{2}}{{\lambda_C}^{2}}\) |
|
| qefs \(\frac{{e_{emax}}^{2}}{{\lambda_C}^{3}\,{F_q}^{3}}\) |
Quantum Electric Field Susceptibilityqefs
Quantum Electric Field Susceptibility
e-emax-2-lambda-c-3-f-q-3
eemax^2 / (λC^3 * Fq^3)
qefs
quantum-electric-field-susceptibility
|
qmu-primary-canonical charge | Quantum Electric Field Susceptibility is a canonical QMU unit. \(\frac{{e_{emax}}^{2}}{{\lambda_C}^{3}\,{F_q}^{3}}\) |
|
| qegi \(\frac{{e_{emax}}^{2}\,{F_q}^{3}}{{\lambda_C}}\) |
Quantum Electric Gradient Intensityqegi
Quantum Electric Gradient Intensity
e-emax-2-f-q-3-lambda-c
eemax^2 * Fq^3 / λC
qegi
quantum-electric-gradient-intensity
|
qmu-primary-canonical charge | Quantum Electric Gradient Intensity is a canonical QMU unit. \(\frac{{e_{emax}}^{2}\,{F_q}^{3}}{{\lambda_C}}\) |
|
| qegr \(\frac{{e_{emax}}^{2}\,{F_q}^{2}}{{\lambda_C}}\) |
Quantum Electric Gradient Resonanceqegr
Quantum Electric Gradient Resonance
e-emax-2-f-q-2-lambda-c
eemax^2 * Fq^2 / λC
qegr
quantum-electric-gradient-resonance
|
qmu-primary-canonical charge | Quantum Electric Gradient Resonance is a canonical QMU unit. \(\frac{{e_{emax}}^{2}\,{F_q}^{2}}{{\lambda_C}}\) |
|
| qexl \(\frac{1}{{m_e}}\) |
Quantum Existential Limitqexl
1 / me
1-me
Quantum Existential Limit
qexl
quantum-existential-limit
|
qmu-primary-canonical mass | Quantum Existential Limit is a canonical QMU unit. \(\frac{1}{{m_e}}\) |
|
| qflx \(\frac{1}{{m_e}\,{\lambda_C}}\) |
Quantum Flexibilityqflx
1 / (me * λC)
1-me-lambda-c
Quantum Flexibility
qflx
quantum-flexibility
|
qmu-primary-canonical length | Quantum Flexibility is a canonical QMU unit. \(\frac{1}{{m_e}\,{\lambda_C}}\) |
|
| qild \(\frac{1}{{e_{emax}}^{2}\,{\lambda_C}^{3}\,{F_q}^{3}}\) |
Quantum Illumination Densityqild
1 / (eemax^2 * λC^3 * Fq^3)
1-e-emax-2-lambda-c-3-f-q-3
Quantum Illumination Density
qild
quantum-illumination-density
|
qmu-primary-canonical charge | Quantum Illumination Density is a canonical QMU unit. \(\frac{1}{{e_{emax}}^{2}\,{\lambda_C}^{3}\,{F_q}^{3}}\) |
|
| qili \(\frac{1}{{m_e}\,{\lambda_C}\,{F_q}^{3}}\) |
Quantum Inverse Light Intensityqili
1 / (me * λC * Fq^3)
1-me-lambda-c-f-q-3
Quantum Inverse Light Intensity
qili
quantum-inverse-light-intensity
|
qmu-primary-canonical length | Quantum Inverse Light Intensity is a canonical QMU unit. \(\frac{1}{{m_e}\,{\lambda_C}\,{F_q}^{3}}\) |
|
| qinf \({F_q}^{3}\) |
Quantum Intensity Factorqinf
Fq^3
Quantum Intensity Factor
f-q-3
qinf
quantum-intensity-factor
|
qmu-primary-canonical compound-qmu | Quantum Intensity Factor is a canonical QMU unit. \({F_q}^{3}\) |
|
| qire \(\frac{1}{{F_q}^{3}}\) |
Quantum Intensity Resistanceqire
1 / Fq^3
1-f-q-3
Quantum Intensity Resistance
qire
quantum-intensity-resistance
|
qmu-primary-canonical resistance | Quantum Intensity Resistance is a canonical QMU unit. \(\frac{1}{{F_q}^{3}}\) |
|
| qldc \(\frac{{\lambda_C}}{{m_e}\,{F_q}^{2}}\) |
Quantum Linear Dynamic Complianceqldc
Quantum Linear Dynamic Compliance
lambda-c-me-f-q-2
qldc
quantum-linear-dynamic-compliance
λC / (me * Fq^2)
|
qmu-primary-canonical length | Quantum Linear Dynamic Compliance is a canonical QMU unit. \(\frac{{\lambda_C}}{{m_e}\,{F_q}^{2}}\) |
|
| qlod \(\frac{{\lambda_C}}{{m_e}\,{F_q}^{3}}\) |
Quantum Linear Oscillation Densityqlod
Quantum Linear Oscillation Density
lambda-c-me-f-q-3
qlod
quantum-linear-oscillation-density
λC / (me * Fq^3)
|
qmu-primary-canonical length | Quantum Linear Oscillation Density is a canonical QMU unit. \(\frac{{\lambda_C}}{{m_e}\,{F_q}^{3}}\) |
|
| qltc \(\frac{{\lambda_C}}{{m_e}\,{F_q}}\) |
Quantum Linear Temporal Complianceqltc
Quantum Linear Temporal Compliance
lambda-c-me-f-q
qltc
quantum-linear-temporal-compliance
λC / (me * Fq)
|
qmu-primary-canonical length | Quantum Linear Temporal Compliance is a canonical QMU unit. \(\frac{{\lambda_C}}{{m_e}\,{F_q}}\) |
|
| qmfa \(\frac{{m_e}\,{F_q}^{3}}{{\lambda_C}^{3}}\) |
Quantum Mass Frequency Activityqmfa
Quantum Mass Frequency Activity
me * Fq^3 / λC^3
me-f-q-3-lambda-c-3
qmfa
quantum-mass-frequency-activity
|
qmu-primary-canonical volume | Quantum Mass Frequency Activity is a canonical QMU unit. \(\frac{{m_e}\,{F_q}^{3}}{{\lambda_C}^{3}}\) |
|
| qmfo \(\frac{{m_e}\,{F_q}}{{\lambda_C}^{3}}\) |
Quantum Mass Frequency Oscillationqmfo
Quantum Mass Frequency Oscillation
me * Fq / λC^3
me-f-q-lambda-c-3
qmfo
quantum-mass-frequency-oscillation
|
qmu-primary-canonical volume | Quantum Mass Frequency Oscillation is a canonical QMU unit. \(\frac{{m_e}\,{F_q}}{{\lambda_C}^{3}}\) |
|
| qmir \(\frac{{m_e}}{{F_q}^{3}}\) |
Quantum Mass Intensity Resistanceqmir
Quantum Mass Intensity Resistance
me / Fq^3
me-f-q-3
qmir
quantum-mass-intensity-resistance
|
qmu-primary-canonical resistance | Quantum Mass Intensity Resistance is a canonical QMU unit. \(\frac{{m_e}}{{F_q}^{3}}\) |
|
| qmob \(\frac{1}{{m_e}\,{\lambda_C}\,{F_q}}\) |
Quantum Mobilityqmob
1 / (me * λC * Fq)
1-me-lambda-c-f-q
Quantum Mobility
qmob
quantum-mobility
|
qmu-primary-canonical length | Quantum Mobility is a canonical QMU unit. \(\frac{1}{{m_e}\,{\lambda_C}\,{F_q}}\) |
|
| qmop \(\frac{{m_e}}{{F_q}^{2}}\) |
Quantum Mass Orbital Periodqmop
Quantum Mass Orbital Period
me / Fq^2
me-f-q-2
qmop
quantum-mass-orbital-period
|
qmu-primary-canonical mass | Quantum Mass Orbital Period is a canonical QMU unit. \(\frac{{m_e}}{{F_q}^{2}}\) |
|
| qmro \(\frac{{m_e}\,{F_q}^{2}}{{\lambda_C}^{3}}\) |
Quantum Mass Resonance Occupationqmro
Quantum Mass Resonance Occupation
me * Fq^2 / λC^3
me-f-q-2-lambda-c-3
qmro
quantum-mass-resonance-occupation
|
qmu-primary-canonical volume | Quantum Mass Resonance Occupation is a canonical QMU unit. \(\frac{{m_e}\,{F_q}^{2}}{{\lambda_C}^{3}}\) |
|
| qmtc \(\frac{{m_e}}{{F_q}}\) |
Quantum Mass Temporal Coefficientqmtc
Quantum Mass Temporal Coefficient
me / Fq
me-f-q
qmtc
quantum-mass-temporal-coefficient
|
qmu-primary-canonical mass | Quantum Mass Temporal Coefficient is a canonical QMU unit. \(\frac{{m_e}}{{F_q}}\) |
|
| qmu-conductance \(Cd\) |
QMU Conductanceqmu-conductance
Cd
QMU Conductance
cd
qmu-conductance
|
derived-qmu conductance | QMU conductance Cd is the reciprocal of magnetic flux mflx. | |
| qopq \(\frac{1}{{m_e}\,{F_q}^{3}}\) |
Quantum Opacityqopq
1 / (me * Fq^3)
1-me-f-q-3
Quantum Opacity
qopq
quantum-opacity
|
qmu-primary-canonical mass | Quantum Opacity is a canonical QMU unit. \(\frac{1}{{m_e}\,{F_q}^{3}}\) |
|
| qpmd \(\frac{{m_e}\,{F_q}^{3}}{{\lambda_C}^{3}\,{e_{emax}}^{2}}\) |
Quantum Photomagnetic Densityqpmd
Quantum Photomagnetic Density
me * Fq^3 / (λC^3 * eemax^2)
me-f-q-3-lambda-c-3-e-emax-2
qpmd
quantum-photomagnetic-density
|
qmu-primary-canonical charge | Quantum Photomagnetic Density is a canonical QMU unit. \(\frac{{m_e}\,{F_q}^{3}}{{\lambda_C}^{3}\,{e_{emax}}^{2}}\) |
|
| qsac \(\frac{{m_e}\,{F_q}^{3}}{{\lambda_C}^{2}}\) |
Quantum Surface Activityqsac
Quantum Surface Activity
me * Fq^3 / λC^2
me-f-q-3-lambda-c-2
qsac
quantum-surface-activity
|
qmu-primary-canonical area | Quantum Surface Activity is a canonical QMU unit. \(\frac{{m_e}\,{F_q}^{3}}{{\lambda_C}^{2}}\) |
|
| qsdc \(\frac{{\lambda_C}^{2}}{{m_e}\,{F_q}}\) |
Quantum Surface Dynamic Complianceqsdc
Quantum Surface Dynamic Compliance
lambda-c-2-me-f-q
qsdc
quantum-surface-dynamic-compliance
λC^2 / (me * Fq)
|
qmu-primary-canonical area | Quantum Surface Dynamic Compliance is a canonical QMU unit. \(\frac{{\lambda_C}^{2}}{{m_e}\,{F_q}}\) |
|
| qsfi \(\frac{1}{{\lambda_C}^{2}\,{F_q}^{3}}\) |
Quantum Surface Frequency Impedanceqsfi
1 / (λC^2 * Fq^3)
1-lambda-c-2-f-q-3
Quantum Surface Frequency Impedance
qsfi
quantum-surface-frequency-impedance
|
qmu-primary-canonical resistance | Quantum Surface Frequency Impedance is a canonical QMU unit. \(\frac{1}{{\lambda_C}^{2}\,{F_q}^{3}}\) |
|
| qsfo \({\lambda_C}^{2}\,{F_q}^{3}\) |
Quantum Surface Oscillationqsfo
Quantum Surface Oscillation
lambda-c-2-f-q-3
qsfo
quantum-surface-oscillation
λC^2 * Fq^3
|
qmu-primary-canonical area | Quantum Surface Oscillation is a canonical QMU unit. \({\lambda_C}^{2}\,{F_q}^{3}\) |
|
| qsin \(\frac{1}{{\lambda_C}^{2}\,{F_q}^{2}}\) |
Quantum Surface Intensityqsin
1 / (λC^2 * Fq^2)
1-lambda-c-2-f-q-2
Quantum Surface Intensity
qsin
quantum-surface-intensity
|
qmu-primary-canonical area | Quantum Surface Intensity is a canonical QMU unit. \(\frac{1}{{\lambda_C}^{2}\,{F_q}^{2}}\) |
|
| qspr \(\frac{1}{{m_e}\,{F_q}^{2}}\) |
Quantum Spreadabilityqspr
1 / (me * Fq^2)
1-me-f-q-2
Quantum Spreadability
qspr
quantum-spreadability
|
qmu-primary-canonical mass | Quantum Spreadability is a canonical QMU unit. \(\frac{1}{{m_e}\,{F_q}^{2}}\) |
|
| qsrc \(\frac{1}{{m_e}\,{\lambda_C}^{2}\,{F_q}^{3}}\) |
Quantum Surface Receptivityqsrc
1 / (me * λC^2 * Fq^3)
1-me-lambda-c-2-f-q-3
Quantum Surface Receptivity
qsrc
quantum-surface-receptivity
|
qmu-primary-canonical area | Quantum Surface Receptivity is a canonical QMU unit. \(\frac{1}{{m_e}\,{\lambda_C}^{2}\,{F_q}^{3}}\) |
|
| qtrl \(\frac{{\lambda_C}}{{F_q}^{2}}\) |
Quantum Trajectory Lengthqtrl
Quantum Trajectory Length
lambda-c-f-q-2
qtrl
quantum-trajectory-length
λC / Fq^2
|
qmu-primary-canonical length | Quantum Trajectory Length is a canonical QMU unit. \(\frac{{\lambda_C}}{{F_q}^{2}}\) |
|
| quantum-frequency \({F_q}\) |
Quantum Frequencyquantum-frequency
Quantum Frequency
f-q
quantum-frequency
{F_q}
|
base-qmu frequency | Quantum frequency is the QMU temporal base rate, expressed by photon velocity divided by Compton length. | |
| quid \(\frac{1}{{\lambda_C}\,{F_q}}\) |
Quantum Inertial Densityquid
1 / (λC * Fq)
1-lambda-c-f-q
Quantum Inertial Density
quantum-inertial-density
quid
|
qmu-primary-canonical length | Quantum Inertial Density is a canonical QMU unit. \(\frac{1}{{\lambda_C}\,{F_q}}\) |
|
| qusi \(\frac{1}{{m_e}\,{\lambda_C}^{2}\,{F_q}^{2}}\) |
Quantum Surface Inertiaqusi
1 / (me * λC^2 * Fq^2)
1-me-lambda-c-2-f-q-2
Quantum Surface Inertia
quantum-surface-inertia
qusi
|
qmu-primary-canonical area | Quantum Surface Inertia is a canonical QMU unit. \(\frac{1}{{m_e}\,{\lambda_C}^{2}\,{F_q}^{2}}\) |
|
| qvci \(\frac{{\lambda_C}^{3}}{{e_{emax}}^{2}\,{F_q}^{3}}\) |
Quantum Volumetric Charge Inertiaqvci
Quantum Volumetric Charge Inertia
lambda-c-3-e-emax-2-f-q-3
quantum-volumetric-charge-inertia
qvci
λC^3 / (eemax^2 * Fq^3)
|
qmu-primary-canonical charge | Quantum Volumetric Charge Inertia is a canonical QMU unit. \(\frac{{\lambda_C}^{3}}{{e_{emax}}^{2}\,{F_q}^{3}}\) |
|
| qvcp \(\frac{{\lambda_C}^{3}}{{e_{emax}}^{2}\,{F_q}}\) |
Quantum Volumetric Charge Persistenceqvcp
Quantum Volumetric Charge Persistence
lambda-c-3-e-emax-2-f-q
quantum-volumetric-charge-persistence
qvcp
λC^3 / (eemax^2 * Fq)
|
qmu-primary-canonical charge | Quantum Volumetric Charge Persistence is a canonical QMU unit. \(\frac{{\lambda_C}^{3}}{{e_{emax}}^{2}\,{F_q}}\) |
|
| qvcr \(\frac{{\lambda_C}^{3}}{{e_{emax}}^{2}\,{F_q}^{2}}\) |
Quantum Volumetric Charge Reluctanceqvcr
Quantum Volumetric Charge Reluctance
lambda-c-3-e-emax-2-f-q-2
quantum-volumetric-charge-reluctance
qvcr
λC^3 / (eemax^2 * Fq^2)
|
qmu-primary-canonical resistance | Quantum Volumetric Charge Reluctance is a canonical QMU unit. \(\frac{{\lambda_C}^{3}}{{e_{emax}}^{2}\,{F_q}^{2}}\) |
|
| qvdf \(\frac{{\lambda_C}^{3}}{{m_e}\,{F_q}}\) |
Quantum Volume Dynamic Fluxqvdf
Quantum Volume Dynamic Flux
lambda-c-3-me-f-q
quantum-volume-dynamic-flux
qvdf
λC^3 / (me * Fq)
|
qmu-primary-canonical volume | Quantum Volume Dynamic Flux is a canonical QMU unit. \(\frac{{\lambda_C}^{3}}{{m_e}\,{F_q}}\) |
|
| qvfi \(\frac{{\lambda_C}^{3}}{{m_e}\,{F_q}^{3}}\) |
Quantum Volume Fluctuation Impedanceqvfi
Quantum Volume Fluctuation Impedance
lambda-c-3-me-f-q-3
quantum-volume-fluctuation-impedance
qvfi
λC^3 / (me * Fq^3)
|
qmu-primary-canonical resistance | Quantum Volume Fluctuation Impedance is a canonical QMU unit. \(\frac{{\lambda_C}^{3}}{{m_e}\,{F_q}^{3}}\) |
|
| qvod \(\frac{{F_q}^{3}\,{\lambda_C}^{3}}{{m_e}}\) |
Quantum Volume Oscillation Densityqvod
Fq^3 * λC^3 / me
Quantum Volume Oscillation Density
f-q-3-lambda-c-3-me
quantum-volume-oscillation-density
qvod
|
qmu-primary-canonical volume | Quantum Volume Oscillation Density is a canonical QMU unit. \(\frac{{F_q}^{3}\,{\lambda_C}^{3}}{{m_e}}\) |
|
| qvoi \(\frac{1}{{m_e}\,{\lambda_C}^{3}}\) |
Quantum Volumetric Inertiaqvoi
1 / (me * λC^3)
1-me-lambda-c-3
Quantum Volumetric Inertia
quantum-volumetric-inertia
qvoi
|
qmu-primary-canonical volume | Quantum Volumetric Inertia is a canonical QMU unit. \(\frac{1}{{m_e}\,{\lambda_C}^{3}}\) |
|
| qvor \(\frac{1}{{\lambda_C}^{3}\,{F_q}^{3}}\) |
Quantum Volume Oscillation Resistanceqvor
1 / (λC^3 * Fq^3)
1-lambda-c-3-f-q-3
Quantum Volume Oscillation Resistance
quantum-volume-oscillation-resistance
qvor
|
qmu-primary-canonical resistance | Quantum Volume Oscillation Resistance is a canonical QMU unit. \(\frac{1}{{\lambda_C}^{3}\,{F_q}^{3}}\) |
|
| qvos \({\lambda_C}^{3}\,{F_q}^{3}\) |
Quantum Volume Oscillationqvos
Quantum Volume Oscillation
lambda-c-3-f-q-3
quantum-volume-oscillation
qvos
λC^3 * Fq^3
|
qmu-primary-canonical volume | Quantum Volume Oscillation is a canonical QMU unit. \({\lambda_C}^{3}\,{F_q}^{3}\) |
|
| qvrc \(\frac{1}{{m_e}\,{\lambda_C}^{3}\,{F_q}}\) |
Quantum Volumetric Receptivityqvrc
1 / (me * λC^3 * Fq)
1-me-lambda-c-3-f-q
Quantum Volumetric Receptivity
quantum-volumetric-receptivity
qvrc
|
qmu-primary-canonical volume | Quantum Volumetric Receptivity is a canonical QMU unit. \(\frac{1}{{m_e}\,{\lambda_C}^{3}\,{F_q}}\) |
|
| qvtc \(\frac{{\lambda_C}^{3}}{{m_e}\,{F_q}^{2}}\) |
Quantum Volume Temporal Complianceqvtc
Quantum Volume Temporal Compliance
lambda-c-3-me-f-q-2
quantum-volume-temporal-compliance
qvtc
λC^3 / (me * Fq^2)
|
qmu-primary-canonical volume | Quantum Volume Temporal Compliance is a canonical QMU unit. \(\frac{{\lambda_C}^{3}}{{m_e}\,{F_q}^{2}}\) |
|
| resn \(\frac{{m_e}\,{\lambda_C}^{2}\,{F_q}}{{e_{emax}}^{4}}\) |
Resistanceresn
Resistance
me * λC^2 * Fq / eemax^4
me-lambda-c-2-f-q-e-emax-4
resistance
resn
|
qmu-primary-canonical resistance | Resistance is a canonical QMU unit. \(\frac{{m_e}\,{\lambda_C}^{2}\,{F_q}}{{e_{emax}}^{4}}\) |
|
| rmfd \(\frac{{m_e}\,{\lambda_C}^{3}\,{F_q}^{2}}{{e_{emax}}^{2}}\) |
Rotating Magnetic Fieldrmfd
Rotating Magnetic Field
me * λC^3 * Fq^2 / eemax^2
me-lambda-c-3-f-q-2-e-emax-2
rmfd
rotating-magnetic-field
|
qmu-primary-canonical charge | Rotating Magnetic Field is a canonical QMU unit. \(\frac{{m_e}\,{\lambda_C}^{3}\,{F_q}^{2}}{{e_{emax}}^{2}}\) |
|
| rson |
Resonance Unitrson
Resonance Unit
resonance-unit
rson
|
derived-qmu resonance | The QMU resonance unit is defined as {F_q}^{2}. | |
| rson-2 \({F_q}^{2}\) |
Resonancerson-2
Fq^2
Resonance
f-q-2
resonance
rson
rson-2
|
qmu-primary-canonical resonance | The QMU resonance unit is defined as {F_q}^{2}. | |
| scir \(\frac{{m_e}}{{\lambda_C}^{2}\,{F_q}^{3}}\) |
Surface Charge Intensity Ratioscir
Surface Charge Intensity Ratio
me / (λC^2 * Fq^3)
me-lambda-c-2-f-q-3
scir
surface-charge-intensity-ratio
|
qmu-primary-canonical charge | Surface Charge Intensity Ratio is a canonical QMU unit. \(\frac{{m_e}}{{\lambda_C}^{2}\,{F_q}^{3}}\) |
|
| sclr \(\frac{{F_q}^{2}}{{\lambda_C}}\) |
Scalar Resonancesclr
sclr
Scalar Resonance
Fq^2 / λC
Fq^2 / λC
scalar-resonance
f-q-2-lambda-c
|
qmu-primary-canonical length | Scalar Resonance is a canonical QMU unit. \(\frac{{F_q}^{2}}{{\lambda_C}}\) |
|
| sclw \(\frac{{F_q}}{{\lambda_C}}\) |
Scalar Wavesclw
sclw
Scalar Wave
Fq / λC
Fq / λC
scalar-wave
f-q-lambda-c
|
qmu-primary-canonical length | Scalar Wave is a canonical QMU unit. \(\frac{{F_q}}{{\lambda_C}}\) |
|
| scoc \(\frac{{m_e}}{{\lambda_C}^{2}\,{F_q}^{2}}\) |
Surface Charge Orbital Coefficientscoc
Surface Charge Orbital Coefficient
me / (λC^2 * Fq^2)
me-lambda-c-2-f-q-2
scoc
surface-charge-orbital-coefficient
|
qmu-primary-canonical charge | Surface Charge Orbital Coefficient is a canonical QMU unit. \(\frac{{m_e}}{{\lambda_C}^{2}\,{F_q}^{2}}\) |
|
| sctf \(\frac{{m_e}}{{\lambda_C}^{2}\,{F_q}}\) |
Surface Charge Temporal Factorsctf
Surface Charge Temporal Factor
me / (λC^2 * Fq)
me-lambda-c-2-f-q
sctf
surface-charge-temporal-factor
|
qmu-primary-canonical charge | Surface Charge Temporal Factor is a canonical QMU unit. \(\frac{{m_e}}{{\lambda_C}^{2}\,{F_q}}\) |
|
| sfcd \(\frac{{m_e}}{{\lambda_C}^{2}}\) |
Surface Densitysfcd
Surface Density
me / λC^2
me-lambda-c-2
sfcd
surface-density
|
qmu-primary-canonical area | Surface Density is a canonical QMU unit. \(\frac{{m_e}}{{\lambda_C}^{2}}\) |
|
| sfch \({e_{emax}}^{2}\,{\lambda_C}^{2}\) |
Surface Chargesfch
Surface Charge
e-emax-2-lambda-c-2
eemax^2 * λC^2
sfch
surface-charge
|
qmu-primary-canonical charge | Surface Charge is a canonical QMU unit. \({e_{emax}}^{2}\,{\lambda_C}^{2}\) |
|
| sfrs \(\frac{1}{{\lambda_C}^{2}\,{F_q}}\) |
Surface Flux Resistancesfrs
1 / (λC^2 * Fq)
1-lambda-c-2-f-q
Surface Flux Resistance
sfrs
surface-flux-resistance
|
qmu-primary-canonical resistance | Surface Flux Resistance is a canonical QMU unit. \(\frac{1}{{\lambda_C}^{2}\,{F_q}}\) |
|
| spar \(\frac{{\lambda_C}^{2}}{{m_e}}\) |
Specific Areaspar
Specific Area
lambda-c-2-me
spar
specific-area
λC^2 / me
|
qmu-primary-canonical area | Specific Area is a canonical QMU unit. \(\frac{{\lambda_C}^{2}}{{m_e}}\) |
|
| spch \(\frac{{\lambda_C}^{3}}{{e_{emax}}^{2}}\) |
Specific Chargespch
Specific Charge
lambda-c-3-e-emax-2
spch
specific-charge
λC^3 / eemax^2
|
qmu-primary-canonical charge | Specific Charge is a canonical QMU unit. \(\frac{{\lambda_C}^{3}}{{e_{emax}}^{2}}\) |
|
| spcv \(\frac{{\lambda_C}^{3}}{{m_e}}\) |
Specific Volumespcv
Specific Volume
lambda-c-3-me
spcv
specific-volume
λC^3 / me
|
qmu-primary-canonical volume | Specific Volume is a canonical QMU unit. \(\frac{{\lambda_C}^{3}}{{m_e}}\) |
|
| spln \(\frac{{\lambda_C}}{{m_e}}\) |
Specific Lengthspln
Specific Length
lambda-c-me
specific-length
spln
λC / me
|
qmu-primary-canonical length | Specific Length is a canonical QMU unit. \(\frac{{\lambda_C}}{{m_e}}\) |
|
| sptn \(\frac{1}{{m_e}\,{\lambda_C}\,{F_q}^{2}}\) |
Spatial Tensilitysptn
1 / (me * λC * Fq^2)
1-me-lambda-c-f-q-2
Spatial Tensility
spatial-tensility
sptn
|
qmu-primary-canonical length | Spatial Tensility is a canonical QMU unit. \(\frac{1}{{m_e}\,{\lambda_C}\,{F_q}^{2}}\) |
|
| sqod \(\frac{{F_q}^{3}}{{\lambda_C}}\) |
Scalar Quantum Oscillation Densitysqod
sqod
Scalar Quantum Oscillation Density
Fq^3 / λC
Fq^3 / λC
scalar-quantum-oscillation-density
f-q-3-lambda-c
|
qmu-primary-canonical length | Scalar Quantum Oscillation Density is a canonical QMU unit. \(\frac{{F_q}^{3}}{{\lambda_C}}\) |
|
| sten \({m_e}\,{F_q}^{2}\) |
Surface Tensionsten
Surface Tension
me * Fq^2
me-f-q-2
sten
surface-tension
|
qmu-primary-canonical area | Surface Tension is a canonical QMU unit. \({m_e}\,{F_q}^{2}\) |
|
| swep \({\lambda_C}^{2}\,{F_q}\) |
Sweep or Angular Velocityswep
Sweep or Angular Velocity
lambda-c-2-f-q
sweep-or-angular-velocity
swep
λC^2 * Fq
|
qmu-primary-canonical area | Sweep or Angular Velocity is a canonical QMU unit. \({\lambda_C}^{2}\,{F_q}\) |
|
| tafx \(\frac{{\lambda_C}^{2}}{{F_q}^{3}}\) |
Temporal Area Fluxtafx
Temporal Area Flux
lambda-c-2-f-q-3
tafx
temporal-area-flux
λC^2 / Fq^3
|
qmu-primary-canonical area | Temporal Area Flux is a canonical QMU unit. \(\frac{{\lambda_C}^{2}}{{F_q}^{3}}\) |
|
| temp \({\lambda_C}^{2}\,{F_q}^{2}\) |
Temperaturetemp
Temperature
lambda-c-2-f-q-2
temp
temperature
λC^2 * Fq^2
|
qmu-primary-canonical area | Temperature is a canonical QMU unit. \({\lambda_C}^{2}\,{F_q}^{2}\) |
|
| thmf \(\frac{{m_e}\,{\lambda_C}}{{e_{emax}}^{4}}\) |
Thermal Magnetic Frictionthmf
Thermal Magnetic Friction
me * λC / eemax^4
me-lambda-c-e-emax-4
thermal-magnetic-friction
thmf
|
qmu-primary-canonical charge | Thermal Magnetic Friction is a canonical QMU unit. \(\frac{{m_e}\,{\lambda_C}}{{e_{emax}}^{4}}\) |
|
| time \(\frac{1}{{F_q}}\) |
Timetime
1 / Fq
1-f-q
Time
time
|
qmu-primary-canonical mass | Time is a canonical QMU unit. \(\frac{1}{{F_q}}\) |
|
| torq \({m_e}\,{\lambda_C}\) |
Torquetorq
Torque
me * λC
me-lambda-c
torq
torque
|
qmu-primary-canonical length | Torque is a canonical QMU unit. \({m_e}\,{\lambda_C}\) |
|
| tqod \(\frac{{F_q}^{3}}{{\lambda_C}^{2}}\) |
Transverse Quantum Oscillation Densitytqod
tqod
Transverse Quantum Oscillation Density
Fq^3 / λC^2
Fq^3 / λC^2
transverse-quantum-oscillation-density
f-q-3-lambda-c-2
|
qmu-primary-canonical area | Transverse Quantum Oscillation Density is a canonical QMU unit. \(\frac{{F_q}^{3}}{{\lambda_C}^{2}}\) |
|
| trmo \(\frac{{\lambda_C}^{3}\,{F_q}^{3}}{{e_{emax}}^{2}}\) |
Trivariate Magnetic Oscillationtrmo
Trivariate Magnetic Oscillation
lambda-c-3-f-q-3-e-emax-2
trivariate-magnetic-oscillation
trmo
λC^3 * Fq^3 / eemax^2
|
qmu-primary-canonical charge | Trivariate Magnetic Oscillation is a canonical QMU unit. \(\frac{{\lambda_C}^{3}\,{F_q}^{3}}{{e_{emax}}^{2}}\) |
|
| tvsr \(\frac{{F_q}^{2}}{{\lambda_C}^{2}}\) |
Transverse Surface Resonancetvsr
tvsr
Transverse Surface Resonance
Fq^2 / λC^2
Fq^2 / λC^2
transverse-surface-resonance
f-q-2-lambda-c-2
|
qmu-primary-canonical area | Transverse Surface Resonance is a canonical QMU unit. \(\frac{{F_q}^{2}}{{\lambda_C}^{2}}\) |
|
| tvsw \(\frac{{F_q}}{{\lambda_C}^{2}}\) |
Transverse Surface Wavetvsw
tvsw
Transverse Surface Wave
Fq / λC^2
Fq / λC^2
transverse-surface-wave
f-q-lambda-c-2
|
qmu-primary-canonical area | Transverse Surface Wave is a canonical QMU unit. \(\frac{{F_q}}{{\lambda_C}^{2}}\) |
|
| vefd \(\frac{{\lambda_C}^{3}\,{F_q}^{2}}{{e_{emax}}^{2}}\) |
Varying Electric Fieldvefd
Varying Electric Field
lambda-c-3-f-q-2-e-emax-2
varying-electric-field
vefd
λC^3 * Fq^2 / eemax^2
|
qmu-primary-canonical charge | Varying Electric Field is a canonical QMU unit. \(\frac{{\lambda_C}^{3}\,{F_q}^{2}}{{e_{emax}}^{2}}\) |
|
| velc \({\lambda_C}\,{F_q}\) |
Quantum Velocityvelc
Quantum Velocity
lambda-c-f-q
quantum-velocity
velc
λC * Fq
|
qmu-primary-canonical length | Quantum Velocity is a canonical QMU unit. \({\lambda_C}\,{F_q}\) |
|
| vfdn \(\frac{1}{{\lambda_C}^{3}\,{F_q}}\) |
Volumetric Field Densityvfdn
1 / (λC^3 * Fq)
1-lambda-c-3-f-q
Volumetric Field Density
vfdn
volumetric-field-density
|
qmu-primary-canonical field | Volumetric Field Density is a canonical QMU unit. \(\frac{1}{{\lambda_C}^{3}\,{F_q}}\) |
|
| visc \(\frac{{m_e}\,{F_q}}{{\lambda_C}}\) |
Viscosityvisc
Viscosity
me * Fq / λC
me-f-q-lambda-c
visc
viscosity
|
qmu-primary-canonical length | Viscosity is a canonical QMU unit. \(\frac{{m_e}\,{F_q}}{{\lambda_C}}\) |
|
| vlmr \(\frac{{F_q}^{2}}{{\lambda_C}^{3}}\) |
Volumetric Resonancevlmr
vlmr
Volumetric Resonance
Fq^2 / λC^3
Fq^2 / λC^3
volumetric-resonance
f-q-2-lambda-c-3
|
qmu-primary-canonical volume | Volumetric Resonance is a canonical QMU unit. \(\frac{{F_q}^{2}}{{\lambda_C}^{3}}\) |
|
| vlmt \(\frac{{\lambda_C}^{3}}{{F_q}}\) |
Volume-Timevlmt
Volume-Time
lambda-c-3-f-q
vlmt
volume-time
λC^3 / Fq
|
qmu-primary-canonical volume | Volume-Time is a canonical QMU unit. \(\frac{{\lambda_C}^{3}}{{F_q}}\) |
|
| vlmw \(\frac{{F_q}}{{\lambda_C}^{3}}\) |
Volumetric Wave Frequencyvlmw
vlmw
Volumetric Wave Frequency
Fq / λC^3
Fq / λC^3
volumetric-wave-frequency
f-q-lambda-c-3
|
qmu-primary-canonical volume | Volumetric Wave Frequency is a canonical QMU unit. \(\frac{{F_q}}{{\lambda_C}^{3}}\) |
|
| voco \(\frac{{\lambda_C}^{3}}{{F_q}^{2}}\) |
Volumetric Orbital Coherencevoco
Volumetric Orbital Coherence
lambda-c-3-f-q-2
voco
volumetric-orbital-coherence
λC^3 / Fq^2
|
qmu-primary-canonical volume | Volumetric Orbital Coherence is a canonical QMU unit. \(\frac{{\lambda_C}^{3}}{{F_q}^{2}}\) |
|
| volm |
Volume Unitvolm
Volume Unit
volm
volume-unit
|
derived-qmu volume | The QMU volume unit is defined as {\lambda_C}^{3}. | |
| volm-2 \({\lambda_C}^{3}\) |
Volumevolm-2
Volume
lambda-c-3
volm
volm-2
volume
λC^3
|
qmu-primary-canonical volume | The QMU volume unit is defined as {\lambda_C}^{3}. | |
| voqo \(\frac{{F_q}^{3}}{{\lambda_C}^{3}}\) |
Volumetric Quantum Oscillationvoqo
voqo
Volumetric Quantum Oscillation
Fq^3 / λC^3
Fq^3 / λC^3
volumetric-quantum-oscillation
f-q-3-lambda-c-3
|
qmu-primary-canonical volume | Volumetric Quantum Oscillation is a canonical QMU unit. \(\frac{{F_q}^{3}}{{\lambda_C}^{3}}\) |
|
| vrtx \({m_e}\,{\lambda_C}^{3}\) |
Vortexvrtx
Vortex
me * λC^3
me-lambda-c-3
vortex
vrtx
|
qmu-primary-canonical volume | Vortex is a canonical QMU unit. \({m_e}\,{\lambda_C}^{3}\) |
|
| wavn \(\frac{1}{{\lambda_C}}\) |
Wave Numberwavn
1 / λC
1-lambda-c
Wave Number
wave-number
wavn
|
qmu-primary-canonical length | Wave Number is a canonical QMU unit. \(\frac{1}{{\lambda_C}}\) |