Derived Physical Quantities

 

Quantity	SI Unit	Dimension
Absement	m⋅s	L T
Absorbed dose rate	Gy/s	L2 T−3
Acceleration	m/s2	L T−2
Angular acceleration	rad/s2	T−2
Angular momentum	kg⋅m2/s	M L2 T−1
Angular velocity	rad/s	T−1
Area	m2	L2
Area density	kg⋅m−2	M L−2
Capacitance	farad (F = C/V)	M−1 L−2 T4 I2
Catalytic activity concentration	kat⋅m−3	L−3 T−1 N
Centrifugal force	N⋅rad = kg⋅m⋅rad⋅s−2	M L T−2
Chemical potential	J/mol	M L2 T−2 N−1
Coldness	1/kB⋅T	Θ
Crackle	m/s5	L T−5
Current density	A/m2	L−2 I
Dose equivalent	sievert (Sv = m2/s2)	L2 T−2
Dynamic viscosity	Pa⋅s	M L−1 T−1
Electric charge	coulomb (C = A⋅s)	T I
Electric charge density	C/m3	L−3 T I
Electric displacement field	C/m2	L−2 T I
Electric field strength	V/m	M L T−3 I−1
Electrical conductance	siemens (S = Ω−1)	M−1 L−2 T3 I2
Electrical conductivity	S/m	M−1 L−3 T3 I2
Electric potential	volt (V = J/C)	M L2 T−3 I−1
Electrical resistance	ohm (Ω = V/A)	M L2 T−3 I−2
Electrical resistivity	ohm-metre (Ω⋅m)	M L3 T−3 I−2
Energy	J	M L2 T−2
Energy density	J⋅m−3	M L−1 T−2
Entropy	J/K	M L2 T−2 Θ−1
Force	newton (N = kg⋅m⋅s−2)	M L T−2
Frequency	hertz (Hz = s−1)	T−1
Half-life	s	T
Heat	joule (J)	M L2 T−2
Heat capacity	J/K	M L2 T−2 Θ−1
Heat flux density	W/m2	M T−3
Illuminance	lux (lx = cd⋅sr/m2)	L−2 J
Impedance	ohm (Ω)	M L2 T−3 I−2
Impulse	newton-second (N⋅s = kg⋅m/s)	M L T−1
Inductance	henry (H)	M L2 T−2 I−2
Irradiance	W/m2	M T−3
Intensity	W/m2	M T−3
Jerk	m/s3	L T−3
Jounce (or snap)	m/s4	L T−4
Linear density	kg⋅m−1	M L−1
Luminous flux (or luminous power)	lumen (lm = cd⋅sr)	J
Mach number (or mach)	unitless	1
Magnetic field strength	A/m	L−1 I
Magnetic flux	weber (Wb)	M L2 T−2 I−1