A particle is projected with velocity $v_0$ along $x-$ axis and its decelaration on the particle is a $a= -\alpha x^2$. The distance at which the particle stops is

  • A

    $\sqrt {\frac{{3{v_0}}}{{2\alpha }}}$

  • B

    ${\left( {\frac{{3{v_0}}}{{2\alpha }}} \right)^{1/3}}$

  • C

    $\sqrt {\frac{{3v_0^2}}{{2\alpha }}}$

  • D

    ${\left( {\frac{{3v_0^2}}{{2\alpha }}} \right)^{1/3}}$

Similar Questions

The velocity of bullet is reduced from $200\; m / s$ to $100\; m / s$ while travelling through a wooden block of thickness of $10 \;cm$ . The retardation assuming to be uniform, will be ...........$\times {10^4}\, m/s^2$

If average velocity of particle moving on a straight line is zero in a time interval, then

Figure shows the graph of $x$-coordinate of a particle moving along $x$-axis as a function of time. Average velocity during $t=0$ to $6 \,s$ and instantaneous velocity at $t=3 \,s$ respectively, will be

A point moves with uniform acceleration and $V_1,V_2$ and $V_3$ denote the average velocities in the threesuccessive intervals of time $t_1, t_2$ and $t_3$. Which of the following relation is correct ?

A man is, $d$ distance behind a bus. The bus moves away from the man with an acceleration $a$. At the same time, man starts running towards bus with a constant velocity $v$.