Let the rate law be given by: Rate = k[A]x[B]y, where x and y are the orders of the reaction with respect to A and B respectively.
From the given data:
Comparing the first and second rows (keeping [B] constant):
\[\frac{4\times10^{-3}}{2\times10^{-3}}=\frac{k[0.2]^{x}[0.1]^{y}}{k[0.1]^{x}[0.1]^{y}}\]
\[2=2^{x}\]
\[x=1\]
Comparing the second and third rows (keeping [A] constant):
\[\frac{1.6\times10^{-2}}{4\times10^{-3}}=\frac{k[0.2]^{x}[0.2]^{y}}{k[0.2]^{x}[0.1]^{y}}\]
\[4=2^{y}\]
\[y=2\]
Therefore, the order of the reaction with respect to A is 1, and with respect to B is 2.
Find temperature (in Kelvin) at which rate constant are equal for the following reaction?
\(\text{A $\rightarrow$ B, K = 10$^4$ e$^{-24000/T}$} \)
\(\text{P $\rightarrow$ Q, K = 10$^6$ e$^{-30000/T}$} \)
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The output (Y) of the given logic implementation is similar to the output of an/a …………. gate.
A constant voltage of 50 V is maintained between the points A and B of the circuit shown in the figure. The current through the branch CD of the circuit is :