Shapiro et al. [76] conclude that the prefrontal regions may regulate cardiac changes.
Rather, 4EBP may regulate selective changes in mRNA translation.
ERG may regulate these changes by altering expression of the histone deacetylase, HDAC1, as this is one of the most up-regulated genes in ERG-positive prostate cancer.
Theoretically, miRNA/RNA interference pathways have features suggesting that they may regulate long-term changes in gene expression that occur during learning and memory (Smalheiser et al., 2001).
Zhang et al. recently found that miR-26 is significantly reduced in a rat cardiac hypertrophy model and may regulate physiological structural changes of rat hearts by targeting glycogen synthase kinase 3 β (GSK3 β) [ 65].
Given that Kv10.1 appears largely neuron specific and localized at synapses (27), Kv10.1 signalling may regulate activity-dependent changes in neuronal function such as the excitability and firing dynamics of Purkinje cells (PCs) that expressed Kv10.1, but not its paralogue Kv10.2 (8, 25, 28).
Recent evidence suggests that the same miRNAs are involved in phase change in woody plants, including E. globulus, implying that they may regulate vegetative phase change in all flowering plants (Wang et al. 2011).
The evidence that distinct activating modifications can promote similar functional outcomes suggests that a variety of chromatin changes may regulate homologous recombination, and that disregulation of epigenetic marks may have deleterious genetic consequences.
Although the underlying mechanism of the effect on the vasculature by respiratory or metabolic acid base changes have not been fully elucidated, it has been suggested that intracellular pH changes may regulate the voltage-gated potassium channels and that this effect is different between the pulmonary and systemic vessels [ 39].
Next, we performed global gene expression profiling studies to identify specific genetic targets and molecular pathways that may regulate T-Ag-induced changes in cellular motility.
