For surface chemistry, this quantity is proportional to surface coverage times number of sites, though for bimolecular cases it requires the models developed by Langmuir and Hinshelwood or by Eley and
For surface chemistry, this quantity is proportional to surface coverage times number of sites, though for bimolecular cases it requires the models developed by Langmuir and Hinshelwood or by Eley and Rideal. "On water" reactions have an unexpected dependence solvent dependence of this property. Properties of the potential energy surface give estimates of this quantity for one case in an improvement that allowed for zero-point energies and normal mode contributions by Marcus to a theory originated by Rice, Ramsberger, and Kassel. For a long time, this quantity varies harmonically in the Briggs-Rauscher reaction. This quantity can be given as proportional to the reactant concentrations raised to exponents called orders; the constant of proportionality is itself proportional to the exponential of negative activation energy over ideal gas constant times temperature in the Arrhenius equation. For 10 points, name this quantity given by the time derivative of a product concentration over its stoichiometric coefficient, the speed at which a chemical transformation takes place.
For surface chemistry, this quantity is proportional to surface coverage times number of sites, though for bimolecular cases it requires the models developed by Langmuir and Hinshelwood or by Eley and Rideal. "
{reaction rate} [accept clear equivalents]