Large activation energy means that the reaction is favored at high temperature.
Asymptotic solutions to the governing equations are constructed in the limit of large activation energy.
Then, the description of the reaction zone is obtained using the large activation energy asymptotic method.
The large activation energies for both pathways suggest that these reactions are favored at high temperatures.
A one-step, Arrhenius reaction of large activation energy with negligible reactant depletion represents the chemistry.
Combustion is represented by a simple irreversible reaction with a large activation temperature.
However, if the probability information of the small and large activation functions is employed, one has minimum (c_{2}=1.0252).
This is relevant because traditional substitutional dopants in Si have too large activation energies in thin SiNWs [27, 28].
Dissociation of the strong bond in O2 often involves large activation barriers on metal particles used as catalysts.
However, they suffer from a drop in the energy efficiency induced by the large activation polarization during vanadium redox reactions.
An overall irreversible reaction with an Arrhenius rate having a large activation energy is used for the chemistry description.
