List of top Chemistry Questions on Collision Theory of Chemical Reactions asked in MET

For the reaction, \( \mathrm{N_2O_5(g) \rightarrow 2NO_2(g) + \frac{1}{2}O_2(g)} \), the value of the rate of disappearance of \( \mathrm{N_2O_5} \) is given as \( 5.15 \times 10^{-3} \, \mathrm{mol\,L^{-1}\,s^{-1}} \). The rate of formation of \( \mathrm{NO_2} \) is
The rate of a gaseous reaction is given by the expression \(k[A][B]\). If the volume of the reaction vessel is suddenly reduced to \( \frac{1}{4} \) of the initial volume, the reaction rate relative to original rate will be:
The rate of a reaction doubles when the initial concentration of the reactant is made fourfold. If the initial concentration is made 400 fold, then the rate will become:
The activation energy of a reaction is zero. The rate constant of this reaction
Raw milk sours in about 4 h at 27$^\circ$C, but in about 48 h in a refrigerator at 17$^\circ$C. What is the activation energy for souring of milk?
Consider the following reaction in aqueous solution, \[ 5Br^- (aq) + BrO_3^- (aq) + 6H^+ (aq) \rightarrow 3Br_2 (aq) + 3H_2O (l) \] If the rate of appearance of Br\(_2\) at a particular moment during the reaction is \( 0.025 \, \mathrm{M \, s^{-1}} \), what is the rate of disappearance (in \( \mathrm{M \, s^{-1}} \)) of Br\(^- \) at that moment?
The rate of a chemical reaction involving liquids only will not be influenced by the
Which of the following statement does not hold good for thermal radiation?
A planet revolves around the sun in an elliptical orbit. The linear speed of the planet will be maximum at
Light of wavelength 5000 falls on a sensitive plate with photoelectric work function 1.9 eV. The kinetic energy of the photoelectron is:
The concentration of a reactant X decreases from $0.1 M$ to $0.005 M$ in $40 min$. If the reaction follows first order kinetics, the rate of the reaction when the concentration of X is $0.01 M$ will be:
At $pH = 4$, glycine exists as:
The concentration of a reactant X decreases from $0.1 M$ to $0.005 M$ in $40 min$. If the reaction follows first order kinetics, the rate of the reaction when the concentration of X is $0.01 M$ will be: