Match the rate expressions in $LIST-I$ for the decomposition of $X$ with the corresponding profiles provided in $LIST-II$. $X _5$ and $k$ constants having appropriate units.
$I$ $\rightarrow P ;$ II $\rightarrow Q ; III \rightarrow S ; IV \rightarrow T$
$I$ $\rightarrow R; II \rightarrow S; III \rightarrow S; IV \rightarrow T$
$I$ $\rightarrow P; II \rightarrow Q; III \rightarrow Q ; IV \rightarrow R$
$I$ $\rightarrow R ; II \rightarrow S ; III \rightarrow Q ; IV \rightarrow R$
For reaction a $A \to x\;P$, when $[A] = 2.2\,m\,M$, the rate was found to be $2.4\;m\,M\;{s^{ - 1}}$. On reducing concentration of $A$ to half, the rate changes to $0.6\;m\,M\;{s^{ - 1}}$. The order of reaction with respect to $A$ is
For a reactions $A + B \to $product, it was found that rate of reaction increases four times if concentration of $ ‘A’$ is doubled, but the rate of reaction remains unaffected. If concentration of $‘B’ $ is doubled. Hence, the rate law for the reaction is
Order of a reaction is decided by
For the reaction system $2NO(g) + {O_2}(g) \to 2N{O_2}(g)$ volume is suddenly produced to half its value by increasing the pressure on it. If the reaction is of first order with respect to $O_2$ and second order with respect to $NO,$ the rate of reaction will
A reaction is second order with respect to a reactant. How is the rate of reaction affected if the concentration of the reactant is
$(i)$ doubled
$(ii)$ reduced to half $?$