Значения термина eukaryotic gene на английском

Cross communication between regulatory proteins is an important event in the control of eukaryotic gene transcription.

The control of messenger RNA (mRNA) translation and degradation is important in regulation of eukaryotic gene expression.

Massive parallel sequencing of RNA transcripts by next-generation technology (RNA-Seq) generates critically important data for eukaryotic gene discovery.

These studies coupled rigorous techniques with exact theory to dissect the linked reactions associated with bacterial and lower eukaryotic gene regulation.

Nucleosomes are the basic packaging units of chromatin, modulating accessibility of regulatory proteins to DNA and thus influencing eukaryotic gene regulation.

Epigenetic chromatin modification is a major regulator of eukaryotic gene expression, and aberrant epigenetic silencing of gene expression contributes to tumorigenesis.

The initiation stage of transcription by RNA polymerase II has long been regarded as the primary site for regulation of eukaryotic gene expression.

The control of eukaryotic gene expression depends on the modification of histone proteins associated with specific genes, with histone acetylation playing a crucial role.

Progesterone receptors (PRs) play critical roles in eukaryotic gene regulation, yet the mechanisms by which they assemble at their promoters are poorly understood.

Progesterone receptors (PR) play critical roles in eukaryotic gene regulation, yet the mechanisms by which they assemble at multisite promoters are poorly understood.

Chromatin organization within the nuclear compartment is a fundamental mechanism to regulate the expression of eukaryotic genes.

Thus, the general DNA sequence organization of these plant genes is similar to that of other eukaryotic genes.

Alternative splicing affects approximately 95% of eukaryotic genes, greatly expanding the coding capacity of complex genomes.

Eukaryotic gene expression requires the cumulative activity of multiple molecular machines to synthesize and process newly transcribed pre-messenger RNA.

The proliferation of retrotransposons within a genome can contribute to increased size and affect the function of eukaryotic genes.

Although splicing is essential for the expression of most eukaryotic genes, inactivation of splicing factors causes specific defects in mitosis.