Klungland and coworkers have provided evidence that mouse Alkbh8 and the catalysed mcmU wobble base modifications are vital for the translation of the reactive oxygen species detoxifying protein Gpx1 (Songe-Moller et al, 2010).
The characterization of these modifications is, however, vital for understanding the cellular mechanisms involved in disease.
The conformation of the central cyclohexyl ring appears to be vital for activity, as modification of the core resulted in significant loss of potency.
Deciphering how newly-deposited histones acquire these modifications during and after DNA replication is vital for understanding the mechanisms underlying epigenetic inheritance.
The endoplasmic reticulum (ER) provides a specialized environment for the folding and modification of trans-membrane proteins, including receptor tyrosine kinases (RTKs), which are vital for the growth and survival of malignancies.
Histone modifications play vital roles in transcriptional regulation, for instance, chromosome condensation [ 55], DNA replication, alternative splicing [ 70], and DNA repair [ 71].
These modifications could be related to phosphorylation or acetylation of the proteins after translation, and they could be vital for the protein's biological functions, such as parasite survival, immune escape, and immunopathogenesis.
Vegetative growth is vital for biomass accumulation of plants, but knowledge regarding the role of protein phosphorylation modification during vegetative growth, especially in biofuel plants, is far from comprehensive.
Buildings are vital for education.
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