In our genetic regulatory model, we consider directed networks where the agents, or nodes, represent the cellular machinery and the links represent the regulating influence of the agents on each other.
Their expression and activity can be regulated influencing cell adhesion, migration, ion conductivity, and cell signalling.
In general, cells devise two main schemes to regulate nucleosomal influences on these cellular processes.
In general, there are three main ways in which cells regulate nucleosomal influences on these cellular processes: chromatin remodeling [ 3], histone modification [ 4], and incorporation of histone variants [ 5].
While once the private sector would have been viewed as quite separate, to be regulated and influenced, we are getting to a point that was once unthinkable, and therefore wholly unacceptable to some.
In vivo, bone formation is a complex, tightly regulated process, influenced by multiple biochemical and physical factors.
This finding suggests that the fast-depleting groundwater levels in the study area can be recuperated by regulating these influencing factors.
Germination is an internally regulated process influenced mainly by genotype, although external factors such as light period, temperature, moisture and presence of certain chemical compounds can also alter this process either through promotion or inhibition (Kucera et al. 2005).
These relationships are not explained by our current understanding of the role of genic noncoding sequences in regulating or influencing gene expression.
Our data indicate that in mES cells c-Myc binds, regulates, and influences the histone modification patterns of genes involved in chromatin remodeling, pluripotency, and differentiation.
