Dual lysine and N‐terminal acetyltransferases reveal the complexity underpinning protein acetylation - Bienvenut, Willy V; Brünje, Annika; Boyer, Jean‐Baptiste; Mühlenbeck, Jens S; Bernal, Gautier; Lassowskat, Ines; Dian, Cyril; Linster, Eric; Dinh, Trinh V; Koskela, Minna M; Jung, Vincent; Seidel, Julian; et al. (Molecular systems biology, 2020)
Keywords: Acetylation; acetylome; Acetyltransferase; Biochemistry, Molecular Biology; Cellular Biology; Chloroplasts; Complexity; co‐ and post‐translational modifications; Deactivation; EMBO30; EMBO31; EMBO56; Enzymatic activity; Enzymes; Genomes; Genomics; In vivo methods and tests; Inactivation; Life Sciences; Localization; Lysine; Mass spectrometry; Mass spectroscopy; Peptides; Phylogenetics; plastid; Plastids; Prokaryotes; Proteins; Quantitative Methods; quantitative proteomics; Selectivity; Structural Biology; Subcellular Processes; Vegetal Biology; co‐ and post‐translational modifications; plastid; acetylome; acetyltransferase; quantitative proteomics; Post-translational Modifications & Proteolysis; co-and post-translational modifications; Proteomics; quantitative proteomics Subject Categories Plant Biology