The relation between velocity \( V \) (in ms\(^{-1}\)) and the displacement \( x \) (in meters) of a particle in motion is \( 2V = \sqrt{37 + 32x} \).
The acceleration of the particle is
Given the relation: \[ 2V = \sqrt{37 + 32x} \] Square both sides to eliminate the square root: \[ (2V)^2 = 37 + 32x \] \[ 4V^2 = 37 + 32x \] Differentiate both sides with respect to time \( t \): \[ \frac{d}{dt}(4V^2) = \frac{d}{dt}(37 + 32x) \] \[ 8V \cdot \frac{dV}{dt} = 32 \cdot \frac{dx}{dt} \] We know that \( \frac{dx}{dt} = V \) (velocity) and \( \frac{dV}{dt} = a \) (acceleration). Substituting these values: \[ 8V \cdot a = 32V \] Divide both sides by \( 8V \): \[ a = \frac{32V}{8V} = 4 \, {ms}^{-2} \] Thus, the acceleration of the particle is 4 ms\(^{-2}\).
Final Answer: 4 ms\(^{-2}\)
A bead P sliding on a frictionless semi-circular string... bead Q ejected... relation between $t_P$ and $t_Q$ is 
Which of the following are ambident nucleophiles?
[A.] CN$^{\,-}$
[B.] CH$_{3}$COO$^{\,-}$
[C.] NO$_{2}^{\,-}$
[D.] CH$_{3}$O$^{\,-}$
[E.] NH$_{3}$
Identify the anomers from the following.

The standard Gibbs free energy change \( \Delta G^\circ \) of a cell reaction is \(-301 { kJ/mol}\). What is \( E^\circ \) in volts?
(Given: \( F = 96500 { C/mol}\), \( n = 2 \))