
$E_{2}=\frac{6}{(6+\lambda L)} \lambda x$ .......$(2)$
So dividing equation $( 1)$ and $( 2)$
$\frac{E_{2}}{0.5}=\frac{2+4}{6+4}=\frac{3}{5}$
$\Rightarrow \quad E_{2}=0.3$ $volt$

Statement $I$ : A uniform wire of resistance $80\,\Omega$ is cut into four equal parts. These parts are now connected in parallel. The equivalent resistance of the combination will be $5\,\Omega$.
Statement $II :$ Two resistance $2\,R$ and $3\,R$ are connected in parallel in a electric circuit. The value of thermal energy developed in $3\,R$ and $2\,R$ will be in the ratio $3:2.$
In the light of the above statements, choose the most appropriate answer from the options given below
Statement $I:$ The equivalent resistance of resistors in a series combination is smaller than least resistance used in the combination.
Statement $II$ : The resistivity of the material is independent of temperature.
In the light of the above statements, choose the correct answer from the options given below

Reason : The current flows towards the point of the higher potential, as it does in such a circuit from the negative to the positive terminal.

| Column $- I$ | Column $- II$ |
| $(A)$ Drift Velocity | $(P)$ $\frac{m}{n e^{2} \rho}$ |
| $(B)$ Electrical Resistivity | $(Q)$ $\mathrm{ne} v_{\mathrm{d}}$ |
| $(C)$ Relaxation Period | $(R)$ $\frac{\mathrm{eE}}{\mathrm{m}} \tau$ |
| $(D)$ Current Density | $(S)$ $\frac{E}{J}$ |
