It is found, as the time delay increases, that the system may undergo no stability switch, exactly one stability switch, or more than one stability switches when the parameters are chosen from different regions.
Analysis of RNA expression alone cannot characterize all aspects of protein expression; for example, proteins may undergo post-translational modifications that can affect protein stability, activity, and subcellular localization.
As progression through the Golgi occurs, proteins may undergo modifications like glycosylation, a necessary step for their stability and function [ 8].
Once the mRNAs are exported to the cytoplasm, they may undergo several additional modifications such as methylation, editing, deadenylation, decapping, and polyuridylation, which again influence the stability or degradation of the RNA [ 7, 14, 17, 20– 22, 30– 30].
These then may undergo further reactions.
An adenoma may undergo cystic degeneration.
A multiple-time-scale formulation is also presented to study the stability when the beam has constant axial acceleration/deceleration. In such situations, an accelerating beam is found to be always stable, whereas a decelerating beam may undergo ephemeral instability.
Cells exposed to nanomaterial may undergo both apoptosis and necrosis.
Each dissolved component may undergo first-order decay and may sorb under local equilibrium conditions.
Clays may undergo large compression during the particular loading condition.
