Answer:
The ratio is 2:1
Step-by-step explanation:
The relation between activation energy, temperature and reaction constant is formulated as Arrhenius equation, which is:
![lnK=ln(A)-(E_(a))/(RT)](https://img.qammunity.org/2020/formulas/chemistry/high-school/5875i6re1h05ubt22j79ivf80oj7ywqmu4.png)
Where
K = rate constant
A= frequency factor
T= temperature (K)
R= gas constant
Here A and R both are constant for the two given conditions
So
![lnK_(cat)=ln(A)-(E_(cat))/(RT_(cat))\\\\lnK_(uncat)=ln(A)-(E_(uncat))/(RT_(uncat))\\](https://img.qammunity.org/2020/formulas/chemistry/high-school/snwauda25pm2t28g3yg1fp3ex3t6u6ut92.png)
Equating the two
![lnK_(cat)+(E_(cat))/(RT_(cat))=lnK_(uncat)+(E_(uncat))/(RT_(uncat))](https://img.qammunity.org/2020/formulas/chemistry/high-school/5j1441ntmo1eejzvso1gzvzptn9nwfolsz.png)
![lnK_(cat)-lnK_(uncat)=(E_(uncat))/(RT_(uncat))-(E_(cat))/(RT_(cat))\\ln((K_(cat))/(K_(uncat)))=(E_(uncat))/(RT_(uncat))-(E_(cat))/(RT_(cat))](https://img.qammunity.org/2020/formulas/chemistry/high-school/lo70wgj2bamaefq02lp5sw3972rcag7wou.png)
)=\frac{14000}{8.314X362}-\frac{11900}{8.314X362}=0.698[/tex]
Taking antilog