The SI unit of mobility of charges - is -

The correct option is B Coulomb/(Kg/s) μ = v / E =( meter ) /( second ) #160;/( force ) /(Coulomb) = (Coulomb)×( meter ) /( second ) #160;/( ...

You visited us 78 times! Enjoying our articles? Unlock Full Access!

Byju's Answer

Standard XII

Physics

Understanding the Electrostatic Model

The SI unit o...

Question

The SI unit of mobility of charges $(μ)$ is :

C o u l o m b / s / K g

No worries! We‘ve got your back. Try BYJU‘S free classes today!

C o u l o m b / (K g / s)

Right on! Give the BNAT exam to get a 100% scholarship for BYJUS courses

C o u l o m b / K g / s^{- 1}

No worries! We‘ve got your back. Try BYJU‘S free classes today!

C o u l o m b / s^{- 1} / K g

No worries! We‘ve got your back. Try BYJU‘S free classes today!

Open in App

Solution

The correct option is B $C o u l o m b / (K g / s)$
$μ = \frac{v}{E} = \frac{(m e t e r) / (s e c o n d)}{(f o r c e) / (C o u l o m b)} = \frac{(C o u l o m b) \times (m e t e r) / (s e c o n d)}{(m a s s) \times (m e t e r) / {(s e c o n d)}^{2}}$

$= \frac{(C o u l o m b)}{(m a s s) / (s e c o n d)}$

$= C o u l o m b / (K g / s)$

Suggest Corrections

Similar questions

Q. The ratio (in

S

I

units) of magnetic dipole moment to that of the angular momentum of an electron of mass

^{'} m^{'}

kg and charge

e

coulomb in Bohr's orbit of hydrogen atom is

Q. The unit of charge is coulomb in SI system and esu of charge (or stat coul) in C.G.S. system 1 coloumb equals

An electron of mass $M k g$ and charge $e c o u l o m b$ travels from rest through a potential difference of $V v o l t$ . The final velocity of the electron is $(i n m / s)$ :

In SI unit number of electric field line associated with 1 coulomb charge is

10 μ A s =

_____ coulombs.

Join BYJU'S Learning Program

The SI unit of mobility of charges (μ) is :

The correct option is B Coulomb/(Kg/s)μ=vE=(meter)/(second)(force)/(Coulomb)=(Coulomb)×(meter)/(second)(mass)×(meter)/(second)2 =(Coulomb)(mass)/(second) =Coulomb/(Kg/s)

The SI unit of mobility of charges $(μ)$ is :