using the rate law and the values for m$,$ n$,$ and p determined CALCULATIONS

Part A

$\frac{M_1{V}_1}{V_2}=\frac{M_2{V}_2}{V_2},M_2=\frac{M_1{V}_1}{V_2}$

We will calculate a relative rate of reaction based upon the time required by setting the relative rate as $1000/$t $($the time on the "clock"

Calculate initial Molarity of each reactant in the mixture for each experiment in part A $($remember eumulative volume is $50ml$

$M_2=?$

Using concentrations and rates from the calculation table above, write

the rate law as it would apply to:

Rate Rate $=K[I^{-}{]}^m[B,O_3*{]}^n[H^{*}{]}^p$

Mixture $1$

Rake $=k[0\mathrm{.}002{]}^{mn}[0\mathrm{.}008{]}^n[0\mathrm{.}02{]}^p$

Mixture $2$

Rate $=[0\mathrm{.}004{]}^m[0\mathrm{.}008{]}^n[0\mathrm{.}02{]}^p$

Divide the equation formixture $1$ by the equation for mixture $2$ and

solve for $m.$

Using the rate law and the values for $m,n,$ and $p$ determined previously, calculate the pseudo rate constant, $k\text{'},$ for each mixture.

Write the rate law using the values found for $K^{\text{'}},m,n,$ and $p$

Use the rate law to calculate a relative rate for reaction mixture $5$ and compare it to the observed.previsously, calculate the pseudo rate constant, K$\text{'},$ for each mixture