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Does the following data fit a second-order rate law?

Trial

Time(s)

(A) (M)

1

5

0.952

2

10

0.625

3

15

0.465

4

20

0.370

5

25

0.308

6

35

0.230

Short Answer

Expert verified

Yes. The graph between 1 / (A) vs. t is linear.

Step by step solution

01

Rate of a Reaction

The rate of reaction may be defined as the speed of the reactant reacting to obtain a product in a particular reaction at a particular time. The concentration of the reactant and product are represented into mole/L.

\({\bf{Rate = k}}{\left( {\bf{A}} \right)^{\bf{m}}}{\left( {\bf{B}} \right)^{\bf{n}}}^{}\)

02

Second-Order Reaction

In this reaction, the second-order reaction depend upon only one concentration of the reactant:

\({\bf{Rate = k}}{\left( {\bf{A}} \right)^{\bf{2}}}\)

Second-order reactions having the integrated rate law:

\({\bf{1 / }}\left( {\bf{A}} \right){\bf{ = kt + 1 / }}{\left( {\bf{A}} \right)_{\bf{0}}}\)

03

Graph

Trial

Time(s)

(A) (M)

1 / (A)

1

5

0.952

1.050

2

10

0.625

1.60

3

15

0.465

2.15

4

20

0.370

2.70

5

25

0.308

3.25

6

35

0.230

4.34

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