SI Conversion to Dozenal Pendulum System

SI Conversion to Dozenal Pendulum System Decimal SI to Dozenal Pendulum System Conversion Table

Quantity

Dimensional Symbol

Description

Name

Symbol

SI Value

SI units

SI unit equivalents

SI Symbol

SI Name

SI to Dozenal Conversion Factor

Ratio interpretation

To Convert SI to Dozenal

Rule of Thumb

CONSTANTS

Mathematical

circumference:Ø ratio

3.141592654

circumference:radius ratio

tau

6.283185307

mass conversion factor

Avogadro constant

N_A

6.02214E+23

mol^-1

Geophysical

acceleration due to gravity

LT-2

gravitation terrestrial

water density

M*L^-3

~1000

kg*m^-3

Electromagnetic

light speed

LT-1

vacuum speed of light

c₀

299792458

m*s^-1

permittivity vacuum

vacuum permittivity

ε₀

F*m^-1

permeability vacuum

vacuum permeability

μ₀

0.000001256637061

H*m^-1

BASE UNITS

Mathematical

azimuthal angle

tau radians = revolutions

trd

6.283185307

rad

m/m

rad

radian

0.1591549431

1/2π

Divide by 2π, dec to dozens

rad → 1/2π trd

polar angle

tau radians

trd

6.283185307

rad

m/m

rad

radian

0.1591549431

1/2π

Divide by 2π, dec to dozens

solid angle

Ratio of area on a sphere to its radius squared

double tau steradians

dts

12.56637061

m2/m2

steradian

0.07957747155

1/4π

Divide by 4π, dec to dozens

sr → 1/4π dts

Spatial [L]

length

lonz = centimeter

ℓ = cm

0.01

100

10^2

shift jot right 2, dec to dozens

m → 10^2 ℓ

Temporal [T]

0.6944444444

time

durz

(10^2 *12^-2)/n

n*6^2 /5^2

n*10^-2 *12^2

shift jot left 2, n dec to dozens, shift zot right 2

dyse

0.6944444444

1.44

10^-2 *12^2

shift jot left 2, dec to dozens, shift zot right 2

s → 10^-2 *12^2 d

secondrie

0.3472222222

2.88

2*10^-2 *12^2

shift jot left 2, double dec to dozens, shift zot right 2

twelfth dyse

0.05787037037

17.28

10^-2 *12^3

shift jot left 2, dec to dozens, shift zot right 3

twelfth secondrie=sestic twelfth day

0.02893518519

34.56

2*10^-2 *12^3

shift jot left 2, double dec to dozens, shift zot right 3

Thermal [Θ]

"relative" temperature

Θ_r

deltagrade

^ΔC

°C+~273.15-4

^ΔC+4 [K-~273.15+4]

°C minus 4, dec to dozens

"absolute" temperature

Kelvin = thermz

same

K → K

Material [M]

mass

gravz = gram

0.001

1000

10^3

shift jot right 3, dec to dozens

kg → 10^3 g

Molar [N]

number of discrete substance

mole

mol

same

mol → mol

Electromagnetic [Q]

charge = force per unit electric field strength

charz

0.0000000001354992393

s⋅A

s⋅A, F⋅V

coulomb

7380115232

~12^11 /10^2

current

I = Q*T^-1

currentz

0.0000000001951189046

5125080022

~12^9

A → ~12^9 c*d^-1

Luminosity

540*10^12 Hz, 683

candelz

DERIVED [θLTΘMN]

Spatial (Statics) [L only]

strain

L/L

Extension per unit length

wavelength

Perpendicular distance between repeating units of a wave

area

square lonz

ℓ2

0.0001

m^2

10000

10^4

shift jot right 4, dec to dozens

m^2 → 10^4 ℓ^2

volume

Three dimensional extent of an object

vilz = cubic lonz

v = ℓ3

0.000001

m^3

1000000

10^6

shift jot right 6, dec to dozens

m^3 → 10^6 ℓ^3 = 10^6 v

wavenumber, optical power, curvature, spatial frequency

L-1

Repetency or spatial frequency: the number of cycles per unit distance

per length

100

m−1

0.01

10^-2

shift jot left 2, dec to dozens

wavevector

L-1

Repetency or spatial frequency vector: the number of cycles per unit distance

m−1

fuel efficiency

L-2

per square length

10000

m−2

m/m3

0.0001

10^-4

shift jot left 4, dec to dozens

Temporal (Dynamics) [T only]

tertrie

12^-7 days

‴

```

0.002411265432

0.003472222222

0.5*12^-2

second

1/60 seconds

secondrie

12^-5 days

″

0.3472222222

0.5

Divide by 2

dyse

2 secondries

0.6944444444

1.44

10^-2 *12^2

shift jot left 2, double dec to dozens, shift zot right 2

s → 10^-2 *12^2 d

tryse

3 secondries

1.041666667

1.5

(1/8)*12

minette = primrie

12^-3 days

′

0.5*12^2 or 6*12

In dozens, multiply by 6, shift zot right 1

minute

1/60 hours

86.4

0.5*10^-1 *12^3

Divide by 2, shift jot left 1, dec to dozens, shift zot right 3

minutes divided by 5, multiplied by six = minettes

hour

1/24 days

3600

5184

(1/4)*12^4 or 3*12^3

hour = hemiduor

duor = nullrie

12^-1 days

7200

10368

(1/2)*12^4

duor = double hour

day

6*12^4 dyse

86400

124416

(1/2)*12^5

week

7 days

604800

870912

(7/2)*12^5

12 days

1036800

1492992

0.5*12^6

year

YYYY

mean lifetime

Average time for a particle of a substance to decay

half-life

Time for a quantity to decay to half its initial value

frequency

T-1

Number of (periodic) occurrences per unit time

per durz

d-1

1.44

s−1

1/s

hertz

0.6944444444

10^2 *12^-2

shift jot right 2, n dec to dozens, shift zot left 2

s^-1 → 10^2/12^2 d^-1

radioactivity (decays per unit time)

T−1

Number of particles decaying per unit time

1.44

s−1

1/s

becquerel

0.6944444444

10^2 *12^-2

shift jot right 2, n dec to dozens, shift zot left 2

frequency drift

T-2

per square durz

d-2

2.0736

s^-2

Hz/s

0.4822530864

10^4 *12^-4

shift jot 4 right, n dec to dozens, shift zot 4 left

s^-2 → 10^4/12^4 d^-2

Kinematic (Spatiotemporal) [T&(L or θ) only]

angular velocity

θT-1

tau radians per time

trd*d-1

9.047786842

rad*s^-1

rad/s

0.110524266

(10^2 *12^-2)/2π

shift jot right 2, dec to dozens /2π, shift zot left 2

dec to dozens, divide by nine

angular velocity

θT-1

revolutions per minute

0.1047197551

rad*s^-1

rpm

0.01157407407

2*10 *12^-3

double, shift jot 1 right, dec to dozens, shift zot 3 left

angular acceleration

θT-2

tau radians per square time

trd*d-2

13.02881305

rad*s^-2

rad/s2

0.07675296253

(10^4 *12^-4)/2π

shift jot 4 right, dec to dozens /2π, shift zot 4 left

dec to dozens, divide by onezeen

speed; velocity

LT-1

Moved distance per unit time: the first time derivative of position

length per time

ℓ*d-1

0.0144

m*s^-1

m/s

69.44444444

10^4 *12^-2

shift jot 4 right, dec to dozens, shift zot 2 left

motor speed

LT-1

kilometres per hour

km/h

0.2777777778

m*s^-1

km/hr

19.29012346

Mach number

LT-1

Ratio of flow velocity to the local speed of sound

refractive index

c₀*L-1T

Factor by which the phase velocity of light is reduced in a medium

acceleration

LT-2

length per square time

ℓ*d-2

0.020736

m*s^−2

m/s2

48.22530864

10^6 *12^-4

shift jot 6 right, dec to dozens, shift zot 4 left

jerk, jolt

LT-3

Change of acceleration per unit time: the third time derivative of position

length per cubic time

ℓ*d-3

0.02985984

m*s^−3

m/s3

33.48979767

10^8 *12^-6

shift jot 8 right, dec to dozens, shift zot 6 left

snap, jounce

LT-4

Change of jerk per unit time: the fourth time derivative of position

length per quartic time

ℓ*d-4

0.0429981696

m*s^−4

m/s4

23.25680394

10^10 *12^-8

shift jot 10 right, dec to dozens, shift zot 8 left

crackle

L T−5

length per quintic time

ℓ*d-5

0.06191736422

m*s^−5

m/s5

pop

L T−6

Rate of change of crackle per unit time: the sixth time derivative of position

volumetric flow

L3T-1

Rate of change of volume with respect to time

volume per time

0.00000144

m3*s^-1

m3⋅s−1

m3/s

694444.4444

10^8 *12^-2

shift jot 8 right, dec to dozens, shift zot 2 left

kinematic viscosity, thermal diffusivity, diffusion coefficient

L2T-1

0.000144

m2⋅s−1

m2/s

6944.444444

10^6 *12^-2

shift jot right 6, dec to dozens, shift zot left 2

specific angular momentum

L2T-1

0.000144

m2⋅s−1

N⋅m⋅s/kg

6944.444444

10^6 *12^-2

shift jot right 6, dec to dozens, shift zot left 2

specific energy

L2T-2

Energy density per unit mass

0.00020736

m2⋅s−2

J⋅kg−1

J/kg

4822.530864

10^8 *12^-4

shift jot right 8, dec to dozens, shift zot left 4

absorbed dose (of ionizing radiation)

L2T-2

Ionizing radiation energy absorbed by biological tissue per unit mass

0.00020736

m2⋅s−2

J/kg

gray

4822.530864

10^8 *12^-4

shift jot right 8, dec to dozens, shift zot left 4

equivalent dose (of ionizing radiation)

L2T-2

Received radiation adjusted for the effect on biological tissue

0.00020736

m2⋅s−2

J/kg

sievert

4822.530864

10^8 *12^-4

shift jot right 8, dec to dozens, shift zot left 4

absorbed dose rate

L2T-3

0.0002985984

m2⋅s−3

Gy/s

3348.979767

10^10 *12^-6

shift jot right 10, dec to dozens, shift zot left 6

Thermodynamic [Θ]

thermal expansion coefficient

Θ-1

K−1

same

dec to dozens

temperature gradient

L-1Θ

steepest rate of temperature change at a particular location

100

m−1⋅K

K/m

0.01

10^-2

shift jot left 2, dec to dozens

specific heat capacity, specific entropy

L2 T−2 Θ−1

Heat capacity per unit mass

0.00020736

m2⋅s−2⋅K−1

J/(K⋅kg)

4822.530864

10^8 *12^-4

shift jot right 8, dec to dozens, shift zot left 4

entropy

M L2 T−2 Θ−1

Logarithmic measure of the number of available states of a system

0.00000020736

m2⋅kg⋅s−2⋅K−1

J/K

4822530.864

10^11 *12^-4

shift jot right 11, dec to dozens, shift zot left 4

heat capacity

M L2 T−2 Θ−1

Energy per unit temperature change

0.00000020736

m2⋅kg⋅s−2⋅K−1

J/K

4822530.864

10^11 *12^-4

shift jot right 11, dec to dozens, shift zot left 4

thermal conductivity

M L T−3 Θ−1

Measure for the ease with which a material conducts heat

0.00002985984

m⋅kg⋅s−3⋅K−1

W/(m⋅K)

33489.79767

10^11 *12^-6

shift jot right 11, dec to dozens, shift zot left 6

thermal conductance

M L2 T−3 Θ−1

Measure for the ease with which an object conducts heat

W/K

Thermal resistivity

M−1 L−1 T3 Θ

Measure for the ease with which a material resists conduction of heat

K⋅m/W

thermal resistance

M−1 L−2 T3 Θ

Measure for the ease with which an object resists conduction of heat

3348979.767

m−2⋅kg−1⋅s3⋅K

K/W

0.0000002985984

10^-13 *12^6

shift jot left 13, dec to dozens, shift zot right 6

Material [M]

mass fraction

Mass of a substance as a fraction of the total mass

kg/kg

atomic mass unit

grams per Avogadro number

a.m.u.

kg*mol^1 /N_A

dalton

6.02214E+26

Multiply by N_A

linear mass density

M L−1

Mass per unit length

0.1

m−1⋅kg

kg/m

shift jot right 1, dec to dozens

area density

M L−2

m−2⋅kg

kg/m2

0.1

10^-1

shift jot left 1, dec to dozens

mass density

M L−3

mass per volume

1000

m−3⋅kg

kg/m3

0.001

10^-3

shift jot left 3, dec to dozens

specific gravity

gravz per vilz

g*cm^−3

g/ml

same

dec to dozens

specific volume

M−1 L3

Volume per unit mass (reciprocal of density)

volume per mass

0.001

m3⋅kg−1

m3/kg

1000

10^4

shift jot right 4, dec to dozens

moment of inertia

M L2

Inertia of an object with respect to angular acceleration

0.0000001

m2⋅kg

kg⋅m2

10000000

10^7

shift jot right 7, dec to dozens

Molar [N]

molarity, amount of substance concentration; molar concentration

L−3 N

Amount of substance per unit volume

1000000

m−3⋅mol

mol/m3

0.000001

10^-6

shift jot left 6, dec to dozens

molar volume

volume per mole

0.000001

m3⋅mol−1

m3/mol

1000000

10^6

shift jot right 6, dec to dozens

catalytic activity

1.44

s−1⋅mol

mol/s

kat

katal

0.6944444444

10^2 *12^-2

shift jot right 2, dec to dozens, shift zot left 2

catalytic efficiency

0.00000144

m3⋅s−1⋅mol−1

m3/(mol⋅s)

694444.4444

10^8 *12^-2

shift jot right 8, dec to dozens, shift zot left 2

catalytic activity concentration

L−3 T−1 N

Change in reaction rate due to presence of a catalyst per unit volume of the system

1440000

m^-3 *s^-1 *mol

kat⋅m−3

0.0000006944444444

10^-4 *12^-2

shift jot left 4, dec to dozens, shift zot left 2

reaction rate

N L−3 T−1

Rate of a chemical reaction for unit time

mol/(m3⋅s)

molality

1000

kg−1⋅mol

mol/kg

0.001

10^-3

shift jot left 3, dec to dozens

molar mass

0.001

kg⋅mol−1

kg/mol

1000

10^3

shift jot right 3, dec to dozens

molar energy

M L2 T−2 N−1

Amount of energy present in a system per unit amount of substance

0.00000020736

m2⋅kg⋅s−2⋅mol−1

J/mol

4822530.864

10^11 *12^-4

shift jot right 11, dec to dozens, shift zot left 4

chemical potential

M L2 T−2 N−1

Energy per unit change in amount of substance

0.00000020736

m2⋅kg⋅s−2⋅mol−1

J/mol

4822530.864

10^11 *12^-4

shift jot right 11, dec to dozens, shift zot left 4

molar entropy

M L2 T−2 Θ−1 N−1

Entropy per unit amount of substance

0.00000020736

m2⋅kg⋅s−2⋅K−1⋅mol−1

J/(K⋅mol)

4822530.864

10^11 *12^-4

shift jot right 11, dec to dozens, shift zot left 4

molar heat capacity

M L2 T−2 Θ−1 N−1

Heat capacity of a material per unit amount of substance

0.00000020736

m2⋅kg⋅s−2⋅K−1⋅mol−1

J/(K⋅mol)

4822530.864

10^11 *12^-4

shift jot right 11, dec to dozens, shift zot left 4

molar conductivity

kg−1⋅s3⋅A2⋅mol−1

S⋅m2/mol

7.84312E+16

~10^-9 *12^24

Mechanical (Material dynamics) [M&(T or L or θ)]

Temporal mass

mass flow rate

0.00144

kg⋅s−1

kg/s

694.4444444

10^5 *12^-2

shift jot right 5, dec to dozens, shift zot left 2

surface tension, stiffness

M T−2

Energy change per unit change in surface area

0.0020736

kg⋅s−2

N/m = J/m2

482.2530864

10^7 *12^-4

shift jot right 7, dec to dozens, shift zot left 2

radiant exposure

0.0020736

kg⋅s−2

J/m2

482.2530864

10^7 *12^-4

shift jot right 7, dec to dozens, shift zot left 2

radiance

M T−3

Power of emitted electromagnetic radiation per unit solid angle per emitting source area

0.002985984

kg⋅s−3 *sr^-1

W/(sr⋅m2)

334.8979767

10^9 *12^-6

shift jot right 9, dec to dozens, shift zot left 6

intensity

Power per unit cross sectional area

W/m2

heat flux density

M T−3

Heat flow per unit time per unit surface area

0.002985984

kg⋅s−3

W/m2

334.8979767

10^9 *12^-6

shift jot right 9, dec to dozens, shift zot left 6

irradiance

M T−3

Electromagnetic radiation power per unit surface area

0.002985984

kg⋅s−3

W/m2

334.8979767

10^9 *12^-6

shift jot right 9, dec to dozens, shift zot left 6

energy flux density

0.002985984

kg⋅s−3

J/(m2⋅s)

334.8979767

10^9 *12^-6

shift jot right 9, dec to dozens, shift zot left 6

W/m2

Material Kinematics (spatiotemporal mass) [MLT]

force, weight

M L T−1

Transfer of momentum per unit time

m*kg*s^−1

N⋅s

impulse

M L T−1

Transferred momentum

N⋅s = kg⋅m/s

newton-second

spectral intensity

0.00002985984

m⋅kg⋅s−3 *sr^-1

W/(sr⋅m)

33489.79767

10^11 *12^-6

shift jot right 11, dec to dozens, shift zot left 6

momentum, impulse

M L T−1

Product of an object's mass and velocity

0.000020736

m*kg*s^−2

kg⋅m/s; kg⋅m/s2"

newton

48225.30864

10^9 *12^-4

shift jot right 9, dec to dozens, shift zot left 4

action

0.000000144

m2⋅kg⋅s−1

J⋅s

6944444.444

10^9 *12^-2

shift jot right 9, dec to dozens, shift zot left 2

weight

M L T−2

Gravitational force on an object

N = kg⋅m/s2

newton

angular momentum

M L2 T−1

0.000000144

m2⋅kg⋅s−1

N⋅m⋅s = J s

6944444.444

10^9 *12^-2

shift jot right 9, dec to dozens, shift zot left 2

spin

M L2 T−1

Quantum-mechanically defined angular momentum of a particle

kg⋅m2⋅s−1

work

M L2 T−2

Transferred energy

joule

energy, work, heat

M L2 T−2

Thermal energy

0.00000020736

kg⋅m2⋅s−2

m⋅N, C⋅V, W⋅s

joule

4822530.864

10^11 *12^-4

shift jot right 11, dec to dozens, shift zot left 4

torque, moment of force

M L2 T−2

Product of a force and the perpendicular distance of the force from the point about which it is exerted

0.00000020736

m2⋅kg⋅s−2 *rad^-1

N⋅m = J/rad

4822530.864

10^11 *12^-4

shift jot right 11, dec to dozens, shift zot left 4

power

M L2 T−3

Rate of transfer of energy per unit time

0.0000002985984

kg⋅m2⋅s−3

J/s, V⋅A

watt

3348979.767

10^13 *12^-6

shift jot right 13, dec to dozens, shift zot left 6

radiant flux

kg⋅m2⋅s−3

radiant intensity

M L2 T−3

Power of emitted electromagnetic radiation per unit solid angle

0.0000002985984

m2⋅kg⋅s−3 *sr^-1

W/sr

3348979.767

10^13 *12^-6

shift jot right 13, dec to dozens, shift zot left 6

yank

0.00002985984

m⋅kg⋅s−3

N/s

33489.79767

10^11 *12^-6

shift jot right 11, dec to dozens, shift zot left 6

spectral power

0.00002985984

m⋅kg⋅s−3

W/m

33489.79767

10^11 *12^-6

shift jot right 11, dec to dozens, shift zot left 6

dynamic viscosity

M L−1 T−1

Measure for the resistance of an incompressible fluid to stress

0.144

m−1⋅kg⋅s−1

Pa⋅s = N⋅s/m2

6.944444444

10^3 *12^-2

shift jot right 3, dec to dozens, shift zot left 2

energy density

M L−1 T−2

Energy per unit volume

0.20736

m−1⋅kg⋅s−2

J/m3

4.822530864

10^5 *12^-4

shift jot right 5, dec to dozens, shift zot left 4

pressure

M L−1 T−2

Force per unit area

0.20736

kg⋅m−1⋅s−2

N/m2

pascal

4.822530864

10^5 *12^-4

shift jot right 5, dec to dozens, shift zot left 4

stress

M L−1 T−2

Force per unit oriented surface area

Young's modulus

M L−1 T−2

Ratio of stress to strain

N/m2

pascal

compressibility

4.822530864

m⋅kg−1⋅s2

Pa−1

0.20736

10^-5 *12^4

shift jot left 5, dec to dozens, shift zot right 4

spectral irradiance, power density

0.2985984

m−1⋅kg⋅s−3

W/m3

3.348979767

10^7 *12^-6

shift jot right 7, dec to dozens, shift zot left 6

spectral radiance

0.2985984

m−1⋅kg⋅s−3 *sr^-1

W/(sr⋅m3)

3.348979767

10^7 *12^-6

shift jot right 7, dec to dozens, shift zot left 6

Photometric

luminous flux, luminous power

Perceived power of a light source

cd*sr

cd⋅sr

lumen

same

illuminance

L−2 J

Luminous flux per unit surface area

10000

sr*cd⋅m−2

lm/m2

lux

0.0001

10^-4

luminous energy

0.6944444444

sr*s⋅cd

lm⋅s

1.44

10^-2 *12^2

luminous exposure

6944.444444

sr*m−2⋅s⋅cd

lx⋅s

0.000144

10^-6 *12^2

luminance

10000

m−2⋅cd

cd/m2

0.0001

10^-4

luminous efficacy

3348979.767

sr*m−2⋅kg−1⋅s3⋅cd

lm/W

0.0000002985984

10^-13 *12^6

Electromagnetic

Spatial charge [Q&L]

linear charge density

0.00000001354992393

m−1⋅s⋅A

C/m

73801152.32

~10^-4 *12^11

electric displacement field, polarization density

L−2 Q

Strength of the electric displacement

0.000001354992393

m−2⋅s⋅A

C/m2

738011.5232

~10^-6 *12^11

electric charge density

L−3 Q

Volumetric charge

0.0001354992393

m−3⋅s⋅A

C/m3

7380.115232

~10^-8 *12^11

Spatiotemporal charge [Q&T&L]

magnetomotive force

0.0000000001951189046

A*rad

A⋅rad

5125080022

*~12^9

magnetization, magnetic field strength

L−1 I

Strength of a magnetic field; Amount of magnetic moment per unit volume

0.00000001951189046

m−1⋅A

A/m

51250800.22

~10^-2 *12^9

electric current density

L−2 I

Electric current per unit cross-section area

0.000001951189046

m−2⋅A

A/m2

512508.0022

~10^-4 *12^9

magnetic dipole moment

m2⋅A

J/T

51250800219246

~10^4 *12^9

Material Charge [Q&M]

exposure (X and gamma rays)

0.0000001354992393

kg−1⋅s⋅A

C/kg

7380115.232

~10^-5 *12^11

Spatiomaterial Charge [Q&M&L]

electrical inductance

M L2 T−2 I−2

Magnetic flux generated per unit current through a circuit

5446610083127

kg⋅m2⋅s−2⋅A−2

V⋅s/A, Ω⋅s, Wb/A

henry

~10^11 *12^-22

magnetic permeability

M L T−2 I−2

Measure for how the magnetization of material is affected by the application of an external magnetic field

544661008312732

m⋅kg⋅s−2⋅A−2

H/m

~10^9 *12^-22

magnetic susceptibility

m−1⋅kg−1⋅s2⋅A2

m/H

544661008312732

~10^-9 *12^22

magnetic reluctance

M−1 L−2 T2 I2

resistance to the flow of magnetic flux

m−2⋅kg−1⋅s2⋅A2

H−1

5446610083127

~10^-11 *12^22

Temporal Material Charge [Q&M&T]

electron mobility

0.00000009409669397

kg−1⋅s2⋅A

m2/(V⋅s)

10627365.93

~10^-7 *12^13

magnetic induction, magnetic flux density

M T−2 I−1

Measure for the strength of the magnetic field

10627365.93

kg⋅s−2⋅A−1

V⋅s/m2, Wb/m2, N/(A⋅m)

tesla

0.00000009409669397

~10^7 *12^-13

Spatiotemporal Material Charge [Q&M&T&L]

Electric

electric field strength

ML T−3 I−1

Strength of the electric field

153034.0694

m⋅kg⋅s−3⋅A−1

V/m

0.000006534492637

~10^11 *12^-15

voltage, electrical potential difference, electromotive force

M L2 T−3 I−1

Energy required to move a unit charge through an electric field from a reference point

1530.340694

kg⋅m2⋅s−3⋅A−1

W/A, J/C

volt

0.0006534492637

~10^13 *12^-15

resistivity

M L3 T−3 I−2

Bulk property equivalent of electrical resistance

78431185197

m3⋅kg⋅s−3⋅A−2

Ω⋅m

~10^15 *12^-24

electrical resistance, impedance, reactance

M L2 T−3 I−2

lectric potential per unit electric current

7843118519703

kg⋅m2⋅s−3⋅A−2

1/S, V/A

ohm

~10^13 *12^-24

impedance

M L2 T−3 I−2

Resistance to an alternating current of a given frequency, including effect on phase

electrical conductance

M−1 L−2 T3 I2

Measure for how easily current flows through a material

kg−1⋅m−2⋅s3⋅A2

1/Ω, A/V

siemens

7843118519703

~10^-13 *12^24

electrical capacitance

M−1 L−2 T4 I2

kg−1⋅m−2⋅s4⋅A2

C/V, s/Ω

farad

11294090668373

~10^-15 *12^26

electrical conductivity

M−1 L−3 T3 I2

Measure of a material's ability to conduct an electric current

m−3⋅kg−1⋅s3⋅A2

S/m

78431185197

~10^-15 *12^24

permittivity

M−1 L−3 T4 I2

Measure for how the polarization of a material is affected by the application of an external electric field

m−3⋅kg−1⋅s4⋅A2

F/m

112940906684

~10^-17 *12^26

Magnetic

magnetic vector potential

106273.6593

m⋅kg⋅s−2⋅A−1

Wb/m

0.000009409669397

~10^9 *12^-13

magnetic rigidity

106273.6593

m⋅kg⋅s−2⋅A−1

T⋅m

0.000009409669397

~10^9 *12^-13

magnetic flux

M L2 T−2 I−1

Measure of magnetism, taking account of the strength and the extent of a magnetic field

weber

magnetic moment

10.62736593

m3⋅kg⋅s−2⋅A−1

Wb⋅m

0.09409669397

~10^13 *12^-13

Average:

806651811624899

Geometric mean

347.2424808