Sentence examples for mass action reaction from inspiring English sources
A kinetic model based on mass action reaction mechanisms was developed to simulate the carbon flow in the cell wall synthesis network.
These chemical reactions were translated into an ODE model by anticipating simple mass action reaction kinetics.
The rigorous justification of these hybrid approximations for mass action reaction networks will be discussed elsewhere.
As an example, in Figure 1 B, the allowed reactions types are a unimolecular mass action reaction, a Michaelis Menten reaction, and a simplified Hill equation.
This preprocessed signal system is associated with classical chemical kinetic mechanisms, because it is the deterministic outcome of a simple and explicit mass action reaction chain.
Such a decomposition is possible for the case of mass action reaction propensities, as defined in (5), or generalized mass action, as recently suggested for the chemical master equation [ 21].
Collisions between molecules are the basis of mass action reactions.
Gillespie's stochastic simulation algorithm (SSA) for chemical reactions admits three kinds of elementary processes, namely, mass action reactions of 0th, 1st or 2nd order.
Dalziel kinetic analysis has also shown that the peroxiredoxin reduction and oxidation reactions for Schistosoma mansoni peroxiredoxin 1 can essentially be described by two independent mass action reactions [ 19], and, in a model of hemoglobin oxidation in red cells, the reduction of hydrogen peroxide by peroxiredoxin II could be modeled effectively with mass action kinetics [ 20].
The reduction of protein disulfides by thioredoxin was described with the following mass action kinetic expression: (18) v = k 1 ⋅ T r x S H ⋅ p s s This equation shows that the fluxes through thioredoxin-dependent mass action reactions change faithfully with changes in the thioredoxin concentration.
Thioredoxin-dependent mass action reactions were relatively sensitive to changes in the thioredoxin redox cycle, whilst the sensitivity of enzymatic reactions and redox cycles (Scheme II) depended on their individual kinetic parameters (equations (20, 22, 26), Figure 2A, C, E, F).
