Two reactions `R_1 and R_2` have identical pre-exponential factors. Activation energy of `R_1` exceeds that of `R_2` by `10Kj.mol^(-1)`. If `K_1 and K_2` are rate constants for reactions `R_1 and R_2` respectively at 300K , then in `(K_2//K_1)` is equal to -(`R = 8.314J .mol^(-1).K^(-1)`)

Two reactions , R_(1) and R_(2) have identical pre-exponential factors . Activation energy of R_(1) exceeds that of R_(2) by 10"kJ.mol"^(-1) . If k_(1) and k_(2) are rate constants for reaction R_(1) and R_(2) respectively at 300K, then In (K_(2)//k_(1)) is equal to (R=8.314"J.mol"^(-1).k^(-1)) -

Two reactions R_(1) and R_(2) have identical pre - exponential factors. Activations enery of R_(1) exceeds that of R_(2) by 10 kJ mol_(-1) . If k_(1) and k_(2) are rate constants for rate constants for reactions R_(1) and R_(2) respectively at 300k , then In (k_(2)/k_(1)) is equal to (R=8.314 J mol^(-1)K^(-1))

Two reactions R_(2) and R_(2) have identical pre - exponential factors. Activations enery of R_(1) exceeds that of R_(2) by 10 kJ mol_(-1) . If k_(1) and k_(2) are rate constants for rate constants for reactions R_(1) and R_(2) respectively at 300k , then In (k_(2)/k_(1)) is equal to (R=8.314 J mol^(-1)K^(-1))

Two reactions R_(2) and R_(2) have identical pre - exponential factors. Activations enery of R_(1) exceeds that of R_(2) by 10 kJ mol_(-1) . If k_(1) and k_(2) are rate constants for rate constants for reactions R_(1) and R_(2) respectively at 300k , then In (k_(2)/k_(1)) is equal to (R=8.314 J mol^(-1)K^(-1))

Two reactions of the same order have equal pre exponential factors but their activation energies differ by 24.9kJ "mol"^(-1) . Calculate the ratio between the rate constants of these reactions at 27^(@)C . (Gas constant R = 8.314 J K^(-1) "mol"^(-1) )

Two reactions of the same order have equal pre exponential factors but their activation energies differ by 24.9kJ "mol"^(-1) . Calculate the ratio between the rate constants of these reactions at 27^(@)C . (Gas constant R = 8.314 J K^(-1) "mol"^(-1) )