Background Post-translational modification (PTM) of proteins is central to many cellular
processes across all domains of life, but despite decades of study and a wealth of genomic …

The post-translational modification (PTM) of proteins plays a critical role in the regulation of
a broad range of cellular processes in eukaryotes. Yet their role in governing similar systems …

Bacteria are often viewed as simple organisms, with very basic and robust cellular
regulation, optimized for rapid growth. While they certainly fit that description, bacteria also …

Understanding the complex interactions of protein posttranslational modifications (PTMs)
represents a major challenge in metabolic engineering, synthetic biology, and the …

Post-translational modifications (PTM) decorate proteins to provide functional heterogeneity
to an existing proteome. The large number of known PTMs highlights the many ways that …

Protein post‐translational modifications (PTM s) allow the cell to regulate protein activity and
play a crucial role in the response to changes in external conditions or internal states …

Although mass spectrometry is well suited to identifying thousands of potential protein post-
translational modifications (PTMs), it has historically been biased towards just a few. To …

Protein post-translational modifications (PTMs) are a key bacterial feature that holds the
capability to modulate protein function and responses to environmental cues. Until recently …

Beside gene expression and translational control, which are relatively slow, PTM of proteins
represents the major level of regulation, from very fast and reversible to slow or irreversible …

More than 300 different types of protein post‐translational modifications (PTMs) have been
described, many of which are known to have pivotal roles in cellular physiology and …