For a general reaction $A \to B$, plot of concentration of $A$ vs time is given in figure. Answer the following question on the basis of this graph.
$(i)$ What is the order of the reaction ?
$(ii)$ What is the slope of the curve ?
$(iii)$ What are the units of rate constant ?
$(i)$ Zero order reaction.
For zero order reaction
$[\mathrm{R}]=-k(t)+[\mathrm{R}]_{0}$
$\uparrow$
$y=m$ $\begin{array}{lll}\uparrow & \uparrow & \uparrow \\ x & + & c\end{array}$
So, the graph is of straight line.
$(ii)$ Slope $=-k$
$(iii)$ Unit of zero order reaction is $\mathrm{mol} \mathrm{L}^{-1} \mathrm{~s}^{-1}$.
The rate law of the reaction $A + 2B \to $Product is given by $\frac{{d[dB]}}{{dt}} = k[{B^2}]$. If $ A$ is taken in excess, the order of the reaction will be
In which of the following cases, does the reaction go farthest to completion
For the reaction:
$2 A + B \rightarrow A _{2} B $
the rate $=k[ A ][ B ]^{2}$ with $k =2.0 \times 10^{-6} \,mol ^{-2}\, L ^{2} \,s ^{-1}$. Calculate the initial rate of the reaction when $[ A ]=0.1 \,mol \,L ^{-1},[ B ]=0.2\, mol \,L ^{-1}$. Calculate the rate of reaction after $[A] $ is reduced to $0.06 \,mol\, L ^{-1}$
For the following parallel chain reaction. What will be that value of overall half-life of $A$ in minutes ?
Given that $\left[ {\frac{{{{\left[ B \right]}_t}}}{{{{[C]}_t}}} = \frac{{16}}{9}} \right]$
$A\,\xrightarrow{{{K_1}\, = \,2\, \times \,{{10}^{^{ - 3}\,}}{S^{ - 1}}}}4B$
$A\to C$
If the surface area of the reactants increases, then order of the reaction