Therefore, the most recently discovered N6-methyladenine, an additional epigenetic mark with regulatory potential, is also described.
First-pass extracted concept
N6-methyladenine
Aliases
6mA
Evidence Snippets
Supporting Sources
Linked Claims
Newly discovered DNA base modifications are reported in genomes lacking canonical 5-methylcytosine, suggesting independent epigenetic functions.
Interestingly, these newly discovered modifications are also found in the genomes which lack canonical 5-mC, signifying their independent epigenetic functions.
Combinatorial interactions among known modified DNA bases suggest a more complex epigenetic code than previously appreciated.
The potential for combinatorial interaction among the known modified DNA bases suggests that epigenetic codon is likely to be substantially more complicated than it is thought today.
Modified DNA bases are associated with regulation of cellular and developmental processes, stem cell pluripotency, neuron development, and tumor development in animals.
The epigenetic marks are known to be associated with the regulation of several cellular and developmental processes, pluripotency of stem cells, neuron cell development, and tumor development in animals.
N6-methyladenine is described as an additional epigenetic mark with regulatory potential.
Therefore, the most recently discovered N6-methyladenine, an additional epigenetic mark with regulatory potential, is also described.
DNA base modifications play important roles in epigenetic control of gene expression in animals and plants.
Modification of DNA bases plays vital roles in the epigenetic control of gene expression in both animals and plants.
Among DNA bases, only cytosine and adenine modifications are stated as known in this review.
Theoretically, each of the DNA bases can be modified; however, modifications of cytosine and adenine only are known so far.