Derived Physical Quantities - Pt.II

 

Quantity	SI Unit	Dimension
Magnetic flux density	tesla (T = Wb/m2)	M T−2 I−1
Magnetization	A/m	L−1 I
Mass fraction	kg/kg	1
(Mass) Density (or volume density)	kg/m3	M L−3
Mean lifetime	s	T
Molar concentration	mol⋅m−3	L−3 N
Molar energy	J/mol	M L2 T−2 N−1
Molar entropy	J/(K⋅mol)	M L2 T−2 Θ−1 N−1
Molar heat capacity	J/(K⋅mol)	M L2 T−2 Θ−1 N−1
Moment of inertia	kg⋅m2	M L2
Momentum	kg⋅m/s	M L T−1
Optical power	dioptre (dpt = m-1)	L−1
Permeability	H/m	M L T−2 I−2
Permittivity	F/m	M−1 L−3 T4 I2
Plane angle	radian (rad)	1
Power	watt (W)	M L2 T−3
Pressure	pascal (Pa = N/m2)	M L−1 T−2
Pop	m/s6	L T−6
(Radioactive) Activity	becquerel (Bq = Hz)	T−1
(Radioactive) Dose	gray (Gy = m2/s2)	L2 T−2
Radiance	W/(m2⋅sr)	M T−3
Radiant intensity	W/sr	M L2 T−3
Reaction rate	mol/(m3⋅s)	N L−3 T−1
Refractive index	unitless	1
Reluctance	H−1	M−1 L−2 T2 I2
Solid angle	steradian (sr)	1
Specific energy	J⋅kg−1	L2 T−2
Specific heat capacity	J/(K⋅kg)	L2 T−2 Θ−1
Specific volume	m3⋅kg−1	M−1 L3
Spin	kg⋅m2⋅s−1	M L2 T−1
Strain	unitless	1
Stress	Pa	M L−1 T−2
Surface tension	N/m or J/m2	M T−2
Temperature gradient	K/m	Θ L−1
Thermal conductance	W/K	M L2 T−3 Θ−1
Thermal conductivity	W/(m⋅K)	M L T−3 Θ−1
Thermal resistance	K/W	M−1 L−2 T3 Θ
Thermal resistivity	K⋅m/W	M−1 L−1 T3 Θ
Torque	newton-metre (N⋅m)	M L2 T−2
Velocity	m/s	L T−1
Volume	m3	L3
Volumetric flow rate	m3⋅s−1	L3 T−1
Wavelength	m	L
Wavenumber	m−1	L−1
Wavevector	m−1	L−1
Weight	newton (N = kg⋅m/s2)	M L T−2
Work	joule (J)	M L2 T−2
Young's modulus	pascal (Pa = N/m2)	M L−1 T−2