List–I		List–II
a)	Electric potential inside a charged conducting sphere	e)	inversely proportional to square of the distance
b)	Electric potential outside the conducting charged sphere	f)	directly proportional to distance (r) from the centre
c)	Electric field inside the non conducting charged sphere	g)	constant
d)	Electric field outside a conducting charged sphere	h)	inversely proportional to distance (r)

	a	b	c	d
1	f	e	g	h
2	e	f	h	g
3	h	g	e	f
4	g	h	f	e

Electric potential inside a charged conducting sphere is constant

Electric potential outside the conducting charged sphere is inversely proportional to distance (r) $\mathrm{V}=\frac{\mathrm{Kq}}{\mathrm{r}}$.

Electric field inside the non conducting charged sphere can be calculated by applying Gauss law taking a sphere at a distance r.

$\mathrm{E}\times 4{\mathrm{\pi r}}^2=\frac{4}{3}{\mathrm{\pi r}}^3\frac{\mathrm{\rho }}{{\mathrm{\epsilon }}_0}$

$\mathrm{E}=\frac{\mathrm{\rho r}}{2{\mathrm{\epsilon }}_{\mathrm{o}}}$$\Rightarrow$Field is directly proportional to distance (r) from the centre

Electric field outside a conducting charged sphere is inversely proportional to square of the distance (shell theorem).