The Arrhenius equation expressing the effect of temperature on the rate constant of a reaction is

Question

The Arrhenius equation expressing the effect of temperature on the rate constant of a reaction is (A) k=e-E / R T (B) k= ln (E/R T) (C) k=(A . E/R T) (D) k=A . e-Ea / R T

Tardigrade Admin · Accepted Answer

Arrhenius proposed a quantitative relationship between the rate constant and temperature as: k=A e-Ea / R T where, A = frequency factor Ea= activation energy

Q. The Arrhenius equation expressing the effect of temperature on the rate constant of a reaction is

$k = e^{- E / RT}$

$k = ln \frac{E}{RT}$

$k = \frac{A . E}{RT}$

$k = A . e^{- E_{a} / RT}$

Arrhenius proposed a quantitative relationship between the rate constant and temperature as: $k = A e^{- E_{a} / RT}$
where, $A$ = frequency factor
$E_{a} =$ activation energy

Q. The Arrhenius equation expressing the effect of temperature on the rate constant of a reaction is

k=e−E/RT

k=lnRTE​

k=RTA.E​

k=A.e−Ea​/RT

Arrhenius proposed a quantitative relationship between the rate constant and temperature as: k=Ae−Ea​/RT where, A = frequency factor Ea​= activation energy

$k = e^{- E / RT}$

$k = ln \frac{E}{RT}$

$k = \frac{A . E}{RT}$

$k = A . e^{- E_{a} / RT}$

Arrhenius proposed a quantitative relationship between the rate constant and temperature as: $k = A e^{- E_{a} / RT}$
where, $A$ = frequency factor
$E_{a} =$ activation energy