| 351 total N-glycosylated proteins |
42.7% had |
two or more N-glycosylation sites |
Colletotrichum graminicola |
| RePRPs |
do not contain |
sequences for farnesylation and prenylation |
Oryza sativa |
| FtsZ of MCs-producing cyanobacteria |
may have been modified to prevent |
MC-LR from competing for GTP site |
|
| target proteins with key roles in GPI-anchor modification |
hold key roles in |
glycosylphosphatidylinositol (GPI)-anchor modification pathway |
Colletotrichum graminicola |
| sulfide |
may react with |
metal centers of metalloproteins |
|
| protein kinases (PKs) and protein phosphatases (PPs) |
play opposite roles in |
phosphorylation and dephosphorylation |
|
| OsNF-YA4-IR1 and OsWRKY55-IR |
are predicted to be less ubiquitinated than |
their full-length counterparts |
Oryza sativa |
| ML3-related ML6 |
was identified unequivocally in |
initial MS analysis following HSN purification |
Arabidopsis thaliana |
| mature MmNec3 protein |
has |
potential N-glycosylation site at Asn90 |
Melianthus minor |
| protein extracts from isogenic Col-0 and (TOL2, AT1G06210) /3/5/6 plant lines expressing GFP-tagged (PYR1, RCAR11, AT4G17870) |
revealed |
increase in the ubiquitination of GFP:PYR1 in (TOL2, AT1G06210) /3/5/6 plant extracts |
Arabidopsis thaliana |
| PP2C |
can directly dephosphorylate |
nonkinase target proteins |
|
| major lipid droplet protein (MLDP) |
lacks |
putative conserved site for palmitoylation |
Dunaliella bardawil |
| Myeloid differentiation factor-2-related lipid-recognition domain protein (ML3, AT5G23820) |
is |
NEDD8-modified protein |
Arabidopsis thaliana |
| proteins with more than 10 oxidation sites |
include |
FtsH proteases, monoxygenase, ATPase, and branched-chain α-keto acid dehydrogenase |
Solanum tuberosum |
| AvrPphB effector from Pseudomonas syringae |
undergoes self-cleavage process to expose |
myristoylation and palmitoylation motif |
Pseudomonas syringae |
| carotene globule protein (CGP) |
has |
predicted palmitoylation site on Cys-13 |
Dunaliella bardawil |
| photorespiratory enzymes |
can be modified by |
oxidative posttranslational protein modifications (PTMs) |
|
| (ATWRKY53, WRKY53, AT4G23810) |
may be phosphorylated by |
(ARAKIN, ATMEKK1, MAPKKK8, MEKK1, AT4G08500) |
Arabidopsis thaliana |
| small fraction of (ML3, AT5G23820) |
is |
(ATRUB1, NEDD8, RUB1, AT1G31340) modified |
Arabidopsis thaliana |
| second residue was Gly |
some sequences had Met removed but others did not |
variable Met cleavage with Gly at position 2 |
Solanum tuberosum |
| NAP1-family proteins |
are known to be regulated by |
prenylation |
Arabidopsis thaliana |
| acetylated proteins outside the nuclei |
have been identified in |
Fusarium oxysporum and Botrytis cinerea |
Fusarium oxysporum; Botrytis cinerea |
| Myeloid differentiation factor-2-related lipid-recognition domain protein (ML3, AT5G23820) |
is |
ubiquitin-modified protein |
Arabidopsis thaliana |
| identified glycoproteins |
were involved in |
protein O-glycosylation |
Colletotrichum graminicola |
| dephosphorylation of kinases by PP2C |
influences |
kinase function |
|
| AvrB |
induce |
phosphorylation at Thr166 of (AtRIN4, RIN4, AT3G25070) |
|
| HopZ5 |
acetylate |
Thr166 of (AtRIN4, RIN4, AT3G25070) |
|
| (ATWRKY53, WRKY53, AT4G23810) |
may be modified by ubiquitination by |
E3 ligase (UPL5, AT4G12570) |
Arabidopsis thaliana |
| enrichment of (ML3, AT5G23820) in purifications of (ATRUB1, NEDD8, RUB1, AT1G31340) conjugates |
may be |
reason for identification of (ML3, AT5G23820) in proteomics studies |
Arabidopsis thaliana |
| AvrRpm1 |
induces ADP-ribosylation on |
10 other (NOI, NOI4, AT5G55850) proteins |
Arabidopsis thaliana |
| SUMOylation of CaAITP1 |
is |
reversible process |
Nicotiana benthamiana |
| Δ9Bg_9562 |
has deletion of |
9 aa at N-terminal (potential T3SS signal) |
|
| CaTrailin3 |
contains either |
extensive post-translational modifications and/or supramolecular complexes |
Craspedostauros australis |
| N-glycosylation |
can coordinate |
glycosylphosphatidylinositol anchor modification |
Colletotrichum graminicola |
| MYC-ML3 fusion protein |
is detected in |
two prominent forms of approximately 32 and 44 kD |
Arabidopsis thaliana |
| potato mitochondrial proteome |
was extensively searched for |
different types of PTMs |
Solanum tuberosum |
| CaTrailin4 |
contains either |
extensive post-translational modifications and/or supramolecular complexes |
Craspedostauros australis |
| Lysine acetylation (Kac) |
plays key role in |
interactions with binding partners |
|
| AtFNR isoforms |
lack evidence for |
in vivo glycosylation |
Arabidopsis thaliana |
| N-alpha-acetylation of FNR |
is |
the modification resulting in appearance and N-terminal blocking of acidic forms |
Arabidopsis thaliana |
| cysteine 34 of TrxB |
was replaced by |
serine residue |
Synechocystis |
| AvrRpm1 |
induce |
phosphorylation at Thr166 of (AtRIN4, RIN4, AT3G25070) |
|
| SDE2 |
is |
conserved ubiquitin-like protein in eukaryotes |
|
| GPI-anchored proteins (GPI-APs) |
could be released from membrane after cleavage by |
specific phospholipases |
|
| 505 proteins |
contained |
at least one type of oxidative modification |
Solanum tuberosum |
| rPPDK1 |
showed normal LD pattern of |
PPC phosphorylation |
Kalanchoe fedtschenkoi |
| Thr-168 in (ATLFNR1, FNR1, LFNR1, AT5G66190) |
is putatively phosphorylated |
phosphorylation |
Arabidopsis thaliana |
| basic AtFNR1 |
has acetylated |
only Lys-321 |
Arabidopsis thaliana |
| AtFNR2 (Lys-330) acetylation |
occurs on |
conserved Lys residue in the same 3D position near the active site |
Arabidopsis thaliana |
| functional significance of these modifications on chloroplast proteins in general, and specifically on AtFNR |
obviously requires |
further research |
Arabidopsis thaliana |
| identified proteins in potato tuber mitochondria |
harbor |
posttranslational modifications |
Solanum tuberosum |
| NEM-biotin derivatization |
tags |
proteins that were initially glutathionylated |
|
| N-alpha-acetylation (Nα-acetylation) |
is |
addition of acetyl group to N-terminal amino acid |
|
| N-terminal trimming |
is one of |
multiple regulatory levels of AtFNR |
Arabidopsis thaliana |
| protease (LON1, LON_ARA_ARA, AT5G26860) |
may be hypothesized to affect proline accumulation at |
posttranslational protein modification level |
Arabidopsis thaliana |
| sHSP22 |
is |
ubiquitination target |
Arabidopsis thaliana |
| posttranslational modifications |
alter |
protein properties |
|
| posttranslational modifications |
are mostly reversible, target-specific, and rapidly affect |
protein stability, activity, or intracellular localization |
|
| ATP/ADP translocator (AAC1, AT3G08580) |
undergoes |
Lys acetylation |
|
| immunoblotting with anti-phospho-PPC antibody |
was used to investigate |
phosphorylation state of PPC |
Kalanchoe fedtschenkoi |
| lipidation |
is |
a common (DDP1, PTM, AT5G35210) occurring in a number of type III effectors of bacterial pathogens |
|
| posttranslationally modified forms |
may result from |
phosphorylation |
Arabidopsis thaliana |
| AtFNR isoforms |
contain |
multiple alternative amino termini |
Arabidopsis thaliana |
| N-terminal peptides representing the N α-acetylated AtFNR2 (FNR2a) |
started with |
Ala, Ile, or Gln |
Arabidopsis thaliana |
| conserved Lys-175 in AtFNR1 |
was acetylated |
|
Arabidopsis thaliana |
| removal of Met |
can be related to |
length of side chain of second amino acid in sequence |
Solanum tuberosum |
| 505 proteins with oxidative modifications |
gave total of |
2,471 sites of modification |
Solanum tuberosum |
| high frequency of Met sulfoxidation |
is in accordance with |
several reports that found sulfur amino acids to be more sensitive to oxidation by ROS |
|
| Lys-321 in acidic and basic AtFNR1 |
is acetylated |
acetylation |
Arabidopsis thaliana |
| Lys-96 and Lys-330 in acidic and basic AtFNR2 |
are acetylated |
acetylation |
Arabidopsis thaliana |
| Asn deamidation (188 proteins) |
was detected in |
188 proteins |
Solanum tuberosum |
| rNAD-ME1 |
had clearly reduced |
degree of dark phosphorylation of PPC |
Kalanchoe fedtschenkoi |
| oxygen-dependent oxidation of transcription factor proteins |
is catalyzed by |
PLANT CYS OXIDASE (PCO) |
|
| these proteins |
are likely |
N-glycosylated |
Arabidopsis thaliana |
| type III effector AvrPto of Pseudomonas syringae |
was phosphorylated when expressed in |
plant leaves |
|
| prenyl motif (C152VVM155) in NbHIPP26 |
was altered by replacing |
Cys-152 with Gly |
Nicotiana benthamiana |
| CP43 |
is N-alpha-acetylated |
N-alpha-acetylation |
|
| Rubisco large subunit |
is N-alpha-acetylated |
N-alpha-acetylation |
|
| Met sulfoxidation, Pro oxidation, and Lys hydroxylation |
are |
most abundant types of PTMs in proteome |
Solanum tuberosum |
| additional bands in 2D isoelectric focusing/SDS-PAGE |
may just represent |
monomers that differ in charge due to posttranslational modification |
Arabidopsis thaliana |
| plant cell wall proteins |
are |
glycosylated proteins with highly repetitive sequences |
|
| interaction with TGB1 |
negates or reverses |
NbHIPP26 lipidation |
Nicotiana benthamiana |
| newly accessible thiols |
are derivatized by |
NEM-biotin |
|
| NO |
can activate through |
metal nitrosation |
|
| ATP SYNTHASE epsilon SUBUNIT (ATPE, ATCG00470) |
is N-alpha-acetylated |
N-alpha-acetylation |
|
| putative phosphorylated Thr residues in the N terminus of (ATLFNR1, FNR1, LFNR1, AT5G66190) |
are present in |
N terminus of (ATLFNR1, FNR1, LFNR1, AT5G66190) |
Arabidopsis thaliana |
| AtFNR isoforms |
form |
acidic and basic forms with different pI values |
Arabidopsis thaliana |
| Acetylation and methylation of chloroplast proteins |
have been identified recently |
chloroplast proteins |
Arabidopsis thaliana |
| Rubisco |
undergoes |
Lys acetylation |
|
| high light intensity and the resulting damage to the D1 protein |
lead to |
phosphorylation of D1, D2, and CP43 |
Arabidopsis thaliana |
| N α-acetylation |
is one of |
multiple regulatory levels of AtFNR |
Arabidopsis thaliana |
| regulation of AOX activity |
is mediated by |
posttranslational pathways |
|
| N α-acetylation |
occurs preferentially at |
Ala, (REM11, VAL, AT5G60140) Ile, Ser, and Thr |
Chlamydomonas reinhardtii |
| results in Supplemental Table S5 |
confirm |
specificity of Met cleavage based on second amino acid |
Solanum tuberosum |
| pyruvate dehydrogenase complex (E1 α- and β-subunits) |
are examples of |
highly abundant carbonylated proteins |
Solanum tuberosum |
| GRMZM2G099648 |
is |
ubiquitin ligase |
Zea mays |
| NAP1-family proteins |
are known to be regulated by |
polyglutamylation |
Arabidopsis thaliana |
| all membrane-bound AtFNR forms |
possess |
acetylated Lys residues |
Arabidopsis thaliana |
| protein oxidation in potato mitochondrial proteome |
was specifically focused on |
in this study |
Solanum tuberosum |
| peripheral pool of LHCB1 |
possesses |
high level of Lys acetylation |
|
| NAD |
is substrate in |
protein de-acetylation reactions |
|
| two forms with different pIs of AtFNR1 and AtFNR2 |
indicate |
posttranslational modification |
Arabidopsis thaliana |
| LHC proteins present in the PSII supercomplexes |
are |
less acetylated |
|
| carbonylated proteins |
include |
both high- and low-abundance proteins spanning variety of metabolic pathways |
Solanum tuberosum |
| highly abundant carbonylated proteins (abundance from −2.99 to −1.56 [log10 (dNSAF)]) |
had up to |
50 oxidation sites mapped to single protein, Gly dehydrogenase |
Solanum tuberosum |
| GPI anchor cleavage |
releases |
arabinogalactan proteins (AGPs) |
|
| NAD |
is substrate in |
poly-ADP-ribosylation reactions |
|
| NO |
can activate through |
S-nitrosylation |
|
| phosphorylation-induced conformational changes |
presumably led to |
reduced RNA-binding |
|
| various LHC proteins |
undergo |
Lys acetylation |
|
| side chain is large (Arg, Asn, Asp, Glu, Ile, Leu, or Lys) |
leads to |
Met is retained |
Solanum tuberosum |
| additional bands |
may reflect |
posttranslationally modified forms of introduced protein |
Arabidopsis thaliana |
| 55-kDa protein |
is |
post-translationally modified |
Hordeum vulgare |
| AvrBsT |
acetylate |
Thr166 of (AtRIN4, RIN4, AT3G25070) |
|
| CaAITP1 |
undergoes |
SUMOylation |
Capsicum annuum |
| AI cell |
shares enrichment of terms with |
SO cells |
Hieracium praealtum |
| hindering the formation of hydrogen bonds |
depends on |
position of the Lys residue within the protein |
|
| POLTERGEIST |
has membrane anchoring through |
palmitoylation |
|
| POLTERGEIST-LIKE |
has membrane anchoring through |
palmitoylation |
|
| feruloylated glycoproteins |
correspond to |
minor cellular component |
Triticum aestivum |
| RCS such as hydroxynonenal (HNE), acrolein, and malondialdehyde |
establish |
covalent bonds |
|
| GIGANTEA (GI) interaction with SPY |
may modulate |
O-fucosylation of DELLA proteins |
|
| incorporation of ferulic acid |
was into |
protein fraction |
|
| GIGANTEA (GI) |
is proposed to regulate PIF4 through |
post-translational mechanism |
|
| Arabidopsis FC lyase |
undergoes |
post-translational N-glycosylation |
Arabidopsis thaliana |
| glycosylation |
can participate in |
post-translational modification (PTM) networks |
|
| (TOL6, AT2G38410) |
is ubiquitylated in vivo |
ubiquitylation of (TOL6, AT2G38410) |
Arabidopsis thaliana |
| XA21 |
is glycosylated |
glycosylation |
Oryza sativa |
| peptide mimics exploiting host secretory machinery |
reach intended apoplastic destination and garner |
plant-specific glycosylation patterns |
|
| Golgi apparatus |
serves as central site of |
protein glycosylation |
|
| SPY |
may induce |
O-fucosylation of GIGANTEA (GI) protein |
|
| animal catalase |
forms adducts with |
4-hydroxynonenal (HNE) |
|
| ubiquitination |
affects |
protein activity |
|
| post-translational modification (PTM) cascade in plants |
has outcome opposite to |
post-translational modification (PTM) cascade in animal systems |
|
| (APD9, FGT2, AT5G66080) |
is attached to the plasma membrane through |
lipid anchoring |
|
| GII b subunit |
affects |
(EFR, AT5G20480) protein levels and size |
|
| (RAB, RBE, AT5G06070) C-terminus |
contains |
prenylatable cysteines |
|
| recognition of plant CLAVATA3/embryo surrounding region (CLE) peptides by cell-surface receptors (CSRs) |
relies on |
host post-translational modification (PTM) |
|
| SUMOylation |
affects |
protein-protein interactions |
|
| tunicamycin (Tm) |
inhibits |
N-glycosylation of neosynthetized proteins |
|
| Gln cyclization to pyro-Glu |
is detected in |
all FNR forms |
Arabidopsis thaliana |
| all complexes |
contained |
alternatively trimmed N termini of AtFNR |
Arabidopsis thaliana |
| Lys acetylation |
was recently detected in |
chloroplast proteome |
|
| protein extracts |
are initially heavily alkylated with |
N-ethylmaleimide (NEM) |
|
| glycosylation |
is prevalent in |
apoplast |
|
| (BAF60, CHC1, SWP73B, AT5G14170) |
modulates |
posttranslational modification |
Arabidopsis thaliana |
| (ATOFP3, OFP3, AT5G58360) localization |
may be directed by |
phosphorylation |
Oryza sativa |
| signalling proteins |
are enriched in |
lipid-modified proteome |
|
| disappearing peptide |
corresponded to |
amino acid sequence CVESGGPEPGVGCAGR |
Azolla filiculoides; Nostoc PCC 73102 |
| 63 proteins from cell cultures |
are candidates for |
S-nitrosylation |
Arabidopsis thaliana |
| transposon becoming part of mRNA |
can change |
potential post-translational modification sites |
|
| post-translational protein modification proteins |
are upregulated at |
15 days after anthesis (DAA) |
Triticum aestivum |
| MAPs |
occur widely in |
chloroplast |
|
| NO |
plays diverse roles in |
modifying the structure and activity of multiple different enzymes |
|
| respective enzymes for tubulin modification |
have not been identified conclusively in |
plants |
|
| sumoylation of (AtSTOP1, STOP1, AT1G34370) |
may depend on a prior post-translational modification that does not occur when STOP1 is expressed in |
E. coli |
Escherichia coli |
| deregulated sumoylation of (AtSTOP1, STOP1, AT1G34370) |
alters |
pool of active (AtSTOP1, STOP1, AT1G34370) |
Arabidopsis thaliana |
| protein ubiquitination proteins |
levels decrease during |
grain filling |
Triticum aestivum |
| phosphorylation-dependent SUMO modifications |
are reported in |
animal cells |
|
| secreted peptide hormones |
undergo |
post-translational modification |
|
| Ala residue in (FLA19, AT1G15190) |
is considered |
crucial functional site that may transfer to Ser/Thr/ (REM11, VAL, AT5G60140) for the glycosylation of subsequent Hyp residues |
|
| addition of 948.8-Da azido-ATP-biotin moiety to PEROXIDASE 52 (PRX52, AT5G05340) |
accounts for |
noticeable slight shift in molecular weight of Western blot signal |
Arabidopsis thaliana |
| reactive electrophile species (RES) |
can chemically react with |
proteins |
|
| seed extracts incubated with excess of iron (Fe 2+ ) in presence of thiol reductants |
showed |
42 kDa GmFAD7 protein band increased dramatically |
Glycine max |
| Chimeric fusion PiII–ScSuc2 |
is known to be |
N-glycosylated |
|
| redox conditions from thiol groups |
affected |
distribution and conformation of GmFAD7 proteins |
Glycine max |
| sequestration of metals by 100 mM EDTA |
reduced considerably |
amount of 42 kDa GmFAD7 protein fraction |
Glycine max |
| reported size difference between unmodified and modified NifH in Gleothece |
is considerably larger than |
mass difference identified in Azolla cyanobiont |
Gleothece; Azolla filiculoides |
| sumoylation of (AtSTOP1, STOP1, AT1G34370) |
may depend on |
prior post-translational modification |
|
| SUMOylation |
has been found to be involved in |
modulation of protein-protein interactions |
|
| iron (Fe 2+ or Fe 3+ ) |
promoted |
42 kDa GmFAD7 protein band accumulation |
Glycine max |
| classical AGPs |
often contain |
GPI lipid anchor |
Oryza sativa |
| phosphorylation of TST2;1 |
may improve |
vacuolar sucrose loading |
|
| appearance of 42 kDa GmFAD7 protein band |
seemed to be accompanied by |
decrease in 80 kDa protein complex |
Glycine max |
| reduction in PP1 and PP2-dimer quantities |
indicates |
disappearance of water-soluble forms |
Cucurbita maxima |
| N-Tyr incorporation into extreme C-terminus of α-tubulin |
probably disturbs |
tyrosination/detyrosination cycle of α-tubulin |
|
| OsWRKY62.1 |
contains |
putative C-terminal sumoylation site |
Oryza sativa |
| detyrosinated tubulin and tyrosinated tubulin |
co-exist in vivo |
cells under normal conditions |
|
| lineage-specific expansion (LSE) |
is particularly evident in relation to |
gene families involved in protein modification |
|
| spots #7 and #65 |
apparently result from |
different post-translational modifications of the same gene products |
Arabidopsis thaliana |
| ubiquitination |
occurs in |
eukaryotic cells |
|
| NO |
can interact with |
thiol groups |
|
| mass difference |
would allow |
identification and location of modification |
Azolla filiculoides |
| myristoylation |
plays pivotal role in |
stabilizing protein conformation |
|
| truncation of GFP upon secretion |
results in |
a lack of fluorescence |
|
| phosphorylation of RGPs |
reduces |
self-glycosylation |
|
| ARF family of small GTPases |
were first identified as |
ADP ribosylation factors |
|
| predicted protein encoded by RNase Phy3 gene |
is probably |
N-glycosylated |
Petunia hybrida |
| az36 |
may represent |
modified, probably inactive, form of NifH |
Azolla filiculoides |
| identity of disappearing peptide |
was confirmed by |
analysing modified and non-modified protein spectra of NifH of Nostoc PCC 73102 |
Nostoc PCC 73102 |
| ADP-ribosylation of Rhodospirillum |
has been shown to be located on |
Arg101 |
Rhodospirillum |
| several explanations |
may exist for |
absence of modified peptide in mass spectra |
Azolla filiculoides |
| NifH protein modification in cyanobacteria |
is shown for first time to be localized within |
13 amino acid sequence SGGPEPGVGCAGR |
Azolla filiculoides |
| post-translational modification |
may cause |
opposite expression patterns of Msr-A isoforms |
Synechocystis sp. PCC 6803 |
| transition metals |
mediate |
protein tyrosine nitration in vivo |
|
| selective nitration of tyrosine |
depends on |
protein structure, nitration mechanism, and environment |
|
| glutathione |
functions as |
substrate for glutathionylation of target proteins |
|
| N-Acetylglucosamine (O-GlcNAc) |
is attached by |
SECRET AGENT (SEC) |
Arabidopsis thaliana |
| mass differences between observed and theoretical Mr |
may be due to |
post-translational modifications during senescence |
Petunia×hybrida |
| acid invertases (Ac-Invs) |
are |
glycosylated proteins |
|
| redox proteomics |
is determined by |
post-translational modifications to proteins |
|
| protein tyrosine nitration |
is |
nitric-oxide-mediated post-translational modification |
|
| plant (ATRBR1, RB, RB1, RBR, RBR1, AT3G12280) proteins |
are controlled by |
phosphorylation |
|
| polysaccharide chains of AGPs |
could be deglycosylated by |
glycosidases |
|
| small amount of recombinant (AtPAO5, PAO5, AT4G29720) protein |
is ubiquitinated |
ubiquitination |
Arabidopsis thaliana |
| lipoxygenase |
is homologous to proteins demonstrated to undergo |
carbonylation |
|
| NifH modification in unicellular cyanobacterium Gleothece |
was proposed to be |
modified by several palmitoylations or palmitoylation in combination with other modifications |
Gleothece |
| one or two tyrosines in proteins |
become preferentially nitrated |
tyrosine nitration |
|
| phloem protein 2 (PP2)-dimer in treated samples |
quantity is strongly reduced |
water-soluble form of PP2-dimer |
Cucurbita maxima |
| Phosphorylation on serine, threonine, and tyrosine |
is |
protein modification |
|
| HvCBL4 |
has Cys2 that would be |
N-myristoylated |
Hordeum vulgare |
| hypusinated (ATELF5A-1, EIF-5A, EIF5A, ELF5A-1, AT1G13950) |
is |
active form of (ATELF5A-1, EIF-5A, EIF5A, ELF5A-1, AT1G13950) |
|
| high-throughput proteomic analysis |
is used to study |
post-translational modifications of proteins |
|
| histone acetyltransferases (HATs) and histone deacetylases (HDACs) |
modify |
histones and non-histone proteins |
|
| nitration of Tyr448 |
would disrupt |
NAD site |
|
| nitric oxide (NO•) |
reacts with |
haem-containing proteins |
|
| peptide corresponding to same part of protein |
disappeared in |
modified protein |
Azolla filiculoides; Nostoc PCC 73102 |
| candidate modification |
could be confirmed by |
chemically de-modifying the protein |
Azolla filiculoides |
| nitration and inactivation by peroxynitrite of glutathione reductase |
similar observations have been made in |
different studies |
|
| peptides common to bands of both 21 kDa and 30 kDa sizes |
indicate |
differences in glycosylation |
Fragaria nubicola; Fragaria viridis |
| catalytic domain of GsCBRLK |
contains |
one potential N-myristoylation site |
Glycine soja |
| nitric oxide (NO•) |
reacts with |
thiol groups |
|
| SAHH |
is |
candidate for both S-nitrosylation and tyrosine nitration |
|
| modification of extreme C-terminus of α-tubulin by reversible enzymatically catalysed addition and removal of tyrosine |
is |
well-characterized post-translational tubulin modifications (PTMs) |
|
| S-nitrosylation of APX |
is reversible |
post-translational modification |
|
| (DHS, EDA22, AT5G05920) catalysis |
results in formation of |
deoxyhypusine |
|
| some observed modifications in the Rubisco large subunit (LS) and small subunit (SS) |
have common features with |
other co- and post-translationally modifying enzymes |
|
| tyrosine nitration (Tyr nitration) |
occurs under |
physiological conditions |
|
| nitration of tyrosine |
is |
selective process |
|
| breaking of equilibrium |
results in |
increase in nitrated SAHH and inactivation of its activity |
|
| high molecular weight proteins in recombinant AtPAO5-6His preparations |
are absent in |
control preparations from wild-type plants |
Arabidopsis thaliana |
| N-Tyr incorporation into proteins |
causes |
changes in enzymatic activity |
|
| mature RM1 |
does not have |
lysine residues |
Oryza sativa |
| (ATGSTF2, ATPM24, ATPM24.1, GST2, GSTF2, AT4G02520) (ATGSTF3, GST16, GSTF3, AT2G02930) and (ATGSTF5, ATGSTF8, GST6, GSTF8, AT2G47730) |
are likely to be substrates of |
(ATMSRB7, MSRB7, AT4G21830) |
Arabidopsis thaliana |
| tubulin–tyrosine ligase (TTL) |
is antagonist of |
tubulin–tyrosine carboxypeptidase (TTC) |
eukaryotes |
| peptide mass spectra of trypsin-digested unmodified and modified NifH |
were compared to identify |
nitrogenase modification |
Azolla filiculoides |
| NifH modification of Azolla cyanobiont |
has |
mass of 300-400 Da |
Azolla filiculoides |
| variation in pI within each group |
resulted from |
carbamylation of lysine residues |
Vitis vinifera |
| Tyr434 |
supported as |
phosphorylation target |
|
| post-translational modifications such as glycosylation |
may cause higher experimental molecular weight than |
expected molecular weight |
Oryza sativa |
| limited proteolysis of soybean (ATLOX1, LOX1, AT1G55020) |
generated |
60 kDa fragment with enhanced activity and membrane binding ability |
Glycine max |
| protein ubiquitination (GO:0016567) |
was only present in |
treatment with 0.5 μM Rose Bengal (RB) |
Arabidopsis thaliana |
| post-translational modifications (PTMs) |
can influence |
stability and structure of microtubules |
|
| palmitoylation (238 Da) |
is usually observed only on |
lysine and N-terminal cysteine after cleavage of signal peptide |
|
| (PXY, TDR, AT5G61480) mutant |
exhibits altered expression of genes associated with |
posttranslational modification |
Oryza sativa |
| all receptor kinase (RK) superfamily members |
appear to be |
S-acylated |
|
| ATP synthase |
is homologous to proteins demonstrated to undergo |
carbonylation |
|
| miraculin |
was identified as |
modified protein not previously shown to be targeted by nitration in plants |
Citrus species |
| nitration of Tyr448 |
is consistent with |
observed inhibitory effect |
|
| ps (ATTOC34, OEP34, TOC34, AT5G05000) |
is similarly regulated by |
phosphorylation |
Pisum sativum |
| large proportion of Azolla cyanobiont NifH protein |
appeared to be |
modified |
Azolla filiculoides |
| in-solution digestion |
would allow for |
determination of exact difference in mass between modified and non-modified protein |
Azolla filiculoides |
| plant (ATELF5A-1, EIF-5A, EIF5A, ELF5A-1, AT1G13950) |
is post-translationally hypusinated |
hypusination |
|
| PP2C |
can dephosphorylate |
kinases |
|
| tubulin–tyrosine-ligase (TTL) |
catalyzes incorporation of N-Tyr into |
extreme C-terminus of α-tubulin |
|
| rice seedlings and tobacco suspension culture cells |
were grown in the presence of |
3-nitro-l-tyrosine (NO2-Tyr) |
Oryza sativa; Nicotiana tabacum |
| excess copper exposure |
causes disruption of protein functions due to copper-binding to |
sulphhydryl groups |
|
| (ML3, AT5G23820) |
had also been found by others in |
similar attempts to identify novel (ATRUB1, NEDD8, RUB1, AT1G31340) conjugates |
Arabidopsis thaliana |
| phosphatases and protein dephosphorylation |
have received less attention than |
protein kinases and phosphorylation |
|
| classical AGPs |
have |
presence of glycosylphosphoinositol (GPI) in the hydrophobic C-terminal region |
|
| (ML3, AT5G23820) |
is |
NEDD8-conjugated and ubiquitin-conjugated protein |
Arabidopsis thaliana |
| menaquinone-4 (vitamin K2) |
serves as |
enzymatic co-factor |
|
| released glycoprotein |
can be subject to |
further processing |
|
| genes important in protein modification |
are significantly overrepresented among |
upregulated genes after dehydration |
|
| hydrofluoric acid treatment |
removes |
glycan moieties |
Craspedostauros australis |
| Lysine acetylation (Kac) |
plays key role in |
protein stability |
|
| RePRPs |
are not likely to have |
hydrophobic C-terminal sequence for GPI anchor addition |
Oryza sativa |
| cadmium |
binds to |
sulfhydryl residues of constituent proteins or enzymes |
|
| spots 1401 and 1402 |
represented |
same protein |
Salicornia europaea |
| post-translational modifications of (AGO1, AtAGO1, ICU9, AT1G48410) |
may play role in |
regulation of (AGO1, AtAGO1, ICU9, AT1G48410) activity |
Arabidopsis thaliana |
| covalent changes from post-translational modifications |
may result in |
loss or gain in protein function or no change in function |
|
| GPI anchor |
is cleaved, followed by |
covalent linkage to sugar moieties within cell wall |
|
| tubulin–tyrosine ligase (ALNS, TTL, AT5G58220) |
preferentially uses |
tubulin dimers as substrate |
|
| G-domain of ps (ATTOC159, PPI2, TOC159, TOC160, TOC86, AT4G02510) |
is efficiently phosphorylated |
phosphorylation |
|
| peptide of same mass |
disappeared in |
modified NifH of Nostoc PCC 73102 |
Nostoc PCC 73102 |
| modification of arginine |
would block |
trypsin cleavage |
Azolla filiculoides |
| S-nitrosylation |
can change the function of |
many proteins |
|
| protein band 41 |
was repressed by |
chemical treatments in the absence of salt stress in roots |
Citrus species |
| tubulin |
is homologous to proteins demonstrated to undergo |
nitrosylation |
|
| Type I ROPs C termini |
are |
posttranslationally modified on the surface of the ER |
Arabidopsis thaliana |
| 14 leaf proteins sensitive to both nitration and nitrosylation without being carbonylated |
were identified in |
leaves |
Citrus species |
| oxidation of methionine |
is |
protein modification |
|
| S-acylation |
is catalyzed by |
protein S-acyl transferases |
|
| fls2c/proFLS2:FLS2 C1132,1135 S Arabidopsis plants |
showed no increase in |
S-acylation following flg22 treatment |
Arabidopsis thaliana |
| carbohydrate moieties of AGPs |
might be released via |
cleavage by specific enzymes |
|
| AtPES |
contains |
potential sumoylation site (LKKE) |
Arabidopsis thaliana |
| ROS-induced oxidative post-translational modifications (Oxi-PTMs) |
alter |
protein structure |
|
| difference in gel migration between GluD1aNip and GluD1aW2 |
is most likely not due to |
post-translational modification |
Oryza sativa |
| Tyr448 |
is proposed as |
target for nitration |
|
| phloem protein 1 (PP1) in treated samples |
quantity is strongly reduced |
water-soluble form of PP1 |
Cucurbita maxima |
| nitric oxide (NO) |
mediates |
post-translational modifications (PTMs) |
|
| post-translational modifications (PTMs) |
increase |
functional diversity in microtubule population |
|
| oxidized methionine (MetO) |
can alter |
protein conformation |
|
| partial N-alpha-acetylation (Nα-acetylation) |
was attributed to |
shift in pI |
Arabidopsis thaliana |
| mitochondrial precursor protein pF 1 β |
has not been shown to be |
phosphorylated |
|
| recombinant (AtPAO5, PAO5, AT4G29720) protein |
may suggest is not ubiquitinated |
monoubiquitination |
Arabidopsis thaliana |
| conserved N-glycosylation site |
is present in |
AtFNR1 and AtFNR2 |
Arabidopsis thaliana |
| acetylation of Lys residues |
results in |
mass gain of 42.0105 D |
Arabidopsis thaliana |
| N-ethylmaleimide (NEM) alkylation |
blocks |
all free thiols |
|
| GPI-anchored proteins (GPI-APs) |
are associated with pollen membranes by |
GPI anchoring |
Arabidopsis thaliana |
| glycosyl hydrolases |
can affect |
Arabinogalactan proteins (AGPs) function |
|
| otubain proteins |
are known to possess |
deubiquitination activity |
|
| N-Tyr |
was incorporated into |
extreme C-terminus of α-tubulin |
|
| Lys-trimethylation |
increases mass by |
42.0471 D |
Arabidopsis thaliana |
| AtFNR1 (Lys-321) acetylation |
occurs on |
conserved Lys residue in the same 3D position near the active site |
Arabidopsis thaliana |
| N-terminal myristoylation |
is |
(DDP1, PTM, AT5G35210) reported of late |
|
| (AtRIN4, RIN4, AT3G25070) |
is modified by |
AvrB |
|
| ubiquitin (Ub) |
is |
founding member of small protein modifiers |
|
| malonylation |
is |
lysine modification |
Oryza sativa spp. japonica |
| (DDP1, PTM, AT5G35210) databases |
integrate |
various (DDP1, PTM, AT5G35210) types |
|
| GPI anchor proteins |
are abundant in |
plants |
|
| deamidation |
is |
protein modification |
|
| higher levels of neddylated (ATCUL1, AXR6, CUL1, ETA1, ICU13, AT4G02570) in substrate-bound SCF |
suggests |
substrate-E3 interactions may trigger neddylation |
|
| (PHT4;6, AT5G44370) |
likely functions in |
protein N-glycosylation |
Arabidopsis thaliana |
| NAD+-dependent malate dehydrogenase |
activity changes upon |
Lys acetylation |
|
| many proteins identified with uncleaved N terminus |
were |
OMM proteins, including porins, or components of respiratory complexes in IMM |
Solanum tuberosum |
| YFP-SS4C protein |
did not yield |
multiple, slow-migrating bands |
|
| active heterodimeric enzyme |
catalyzes |
similar protein modification reaction |
Arabidopsis thaliana |
| (GUN4, AT3G59400) |
acts on |
posttranslational level |
|
| xyloglucan endotransglucosylase |
was identified as |
modified protein not previously shown to be targeted by nitration in plants |
Citrus species |
| (ATGSTF2, ATPM24, ATPM24.1, GST2, GSTF2, AT4G02520) and (ATGSTF3, GST16, GSTF3, AT2G02930) |
may be direct substrates of |
(ATMSRB7, MSRB7, AT4G21830) |
Arabidopsis thaliana |
| Acetylation on protein N-termini |
is |
protein modification |
|
| aconitate hydratase |
is homologous to proteins demonstrated to undergo |
carbonylation |
|
| sucrose synthase |
was identified as |
modified protein not previously shown to be targeted by nitration in plants |
Citrus species |
| 34 exclusively carbonylated proteins in leaves |
were identified among |
92 carbonylated proteins in leaves |
Citrus species |
| 12 proteins with all post-translational modifications in roots |
mainly included |
proteins with chaperone function, energy, amino acid metabolism, transport ATPases, signal transduction and defense |
Citrus species |
| two NON-EXPRESSOR OF PR GENES 1 (ATNPR1, NIM1, NPR1, SAI1, AT1G64280) cysteine mutants |
had |
constitutive (ATNPR1, NIM1, NPR1, SAI1, AT1G64280) monomer accumulation |
|
| TaADF7 protein |
contains |
phosphorylation site |
Triticum aestivum |
| ROS-induced oxidative post-translational modifications (Oxi-PTMs) |
alter |
protein function |
|
| ELONGATION FACTOR-Tu RECEPTOR (EFR, AT5G20480) -GFP |
undergoes |
elf18-induced increase in S-acylation |
Nicotiana benthamiana |
| FLAGELLIN SENSING 2 (ATFLS2, FLS2, AT5G63580) Cys1132 and 1135 |
are |
sites of ligand inducible S-acylation |
|
| tubulin diversity |
may be further enhanced by |
post-translational modifications |
|
| DTT (dithiothreitol) |
disrupts |
disulfide bonds inside or between proteins |
|
| OPDA |
reacts with |
protein thiols |
|
| PTMcode |
is |
(DDP1, PTM, AT5G35210) database |
|
| OsC6 |
lacks |
GPI-anchor |
Oryza sativa |
| endogenously S-nitrosylated proteins in Arabidopsis |
contain |
cysteine S-nitrosylation site |
Arabidopsis thaliana |
| ubiquitination |
includes |
activation |
|
| enolase |
is homologous to proteins demonstrated to undergo |
carbonylation |
|
| intrinsically disordered regions (IDRs) |
are frequently enriched in |
posttranslational modification |
|
| sorbitol dehydrogenase |
was identified as |
modified protein not previously shown to be targeted by nitration in plants |
Citrus species |
| 22 leaf proteins overlapped among carbonylation, nitration and nitrosylation |
were identified in |
leaves |
Citrus species |
| SUMOylation |
is able to alter |
protein biochemical activities and interactions |
|
| PLANT U-BOX12/13 ( (AtPUB12, PUB12, AT2G28830) /13) action |
may be required for |
S-acylation to occur |
|
| actin |
is homologous to proteins demonstrated to undergo |
nitration |
|
| common targets of the three post-translational modifications in leaves |
included |
enzymes involved in photosynthesis, energy, defense, amino acid metabolism, cytoskeleton and secondary metabolite biosynthesis |
Citrus species |
| spots 1401 and 1402 |
have |
same molecular mass but different pI values |
Salicornia europaea |
| Rubisco large subunit |
is homologous to proteins demonstrated to undergo |
nitration |
|
| phosphoglycerate kinase |
is homologous to proteins demonstrated to undergo |
nitrosylation |
|
| cell-surface proteins (such as receptors) in animals and plants |
are often |
glycosylated |
|
| (APD9, FGT2, AT5G66080) and PLDα2 |
can be phosphorylated in vivo |
phosphorylation |
|
| phosphorylation levels of (ACS2, AT-ACC2, AT1G01480) |
show no differences between |
mutants and WT |
Solanum lycopersicum |
| 20S proteasome |
is homologous to proteins demonstrated to undergo |
nitration |
|
| prohibitin |
was identified as |
modified protein not previously shown to be targeted by nitration in plants |
Citrus species |
| GLRG_07478 (E3QN96) |
was N-glycosylated at |
10 sites |
Colletotrichum graminicola |
| sulfite |
likely affects proteins by |
opening S-S bridges in their structures |
Solanum lycopersicum |
| proteomic analysis |
identified |
a large number of posttranslational modifications (PTMs) |
Solanum tuberosum |
| GPI anchor |
can be cleaved |
arabinogalactan proteins (AGPs) |
|
| predicted targeting peptide of ThrRS–dTP |
contains |
four predicted phosphorylation sites |
|
| SUMOylation |
affects |
subcellular localization of proteins |
|
| small ubiquitin-related modifier 1 (ATSUMO1, SUM1, SUMO 1, SUMO1, AT4G26840) |
upregulated by high nitrogen availability at 21 days post-anthesis (DPA) |
grain development |
|
| N-terminal acetyltransferase (Nat) |
transfers to |
N-terminal amino acid of target protein |
|
| deacetylases |
remove |
acetyl modifications |
|
| GRXs |
modulate target protein activities by |
S-deglutathionylation reactions or reduction of protein disulfide bonds |
|
| similar cooperative regulatory mechanisms |
may modulate |
diverse cellular processes other than innate immunity |
|
| (ATDET1, DET1, FUS2, AT4G10180) |
could promote |
CSN-mediated cycles of (ATCUL4, CUL4, AT5G46210) neddylation/deneddylation |
|
| post-translational modification of Mn transporters |
is poorly understood in comparison with |
post-translational modification of transporters for other microelements such as Fe and Zn |
|
| S-nitrosylation |
can |
activate or deactivate protein activity |
|
| genes in G–G chromatin loops |
were enriched in |
protein modification |
Cichorium intybus |
| (ML3, AT5G23820) |
can interact with |
(ATRUB1, NEDD8, RUB1, AT1G31340) and ubiquitin |
Arabidopsis thaliana |
| algal PINs |
lack |
canonical phosphorylation sites |
|
| N-linked protein glycosylation |
involves |
N-glycosidic bond |
|
| SRN2 |
has |
putative GPI anchor residue at C-terminal end |
Colletotrichum orbiculare |
| RePRPs |
are glycosylated in |
Pro-rich domain |
Oryza sativa |
| persulfidation |
modifies |
large number of proteins |
|
| rice RePRPs |
are |
glycoproteins |
Oryza sativa |
| (ML3, AT5G23820) interactions with (ATRUB1, NEDD8, RUB1, AT1G31340) and ubiquitin in yeast two-hybrid system |
may be the result of |
conjugation between bait and prey fusion proteins |
Arabidopsis thaliana |
| subcellular redistribution of (IYO, AT4G38440) in transition cells |
may require |
posttranslational modifications |
Arabidopsis thaliana |
| iodoacetamide |
is used to alkylate |
cysteine residues |
|
| noncovalent interactions of (ML3, AT5G23820) with (ATRUB1, NEDD8, RUB1, AT1G31340) |
may be |
reason for identification of (ML3, AT5G23820) in proteomics studies of (ATRUB1, NEDD8, RUB1, AT1G31340) conjugates |
Arabidopsis thaliana |
| GPI-anchored proteins (GPI-APs) released from membrane |
become |
free proteins |
|
| D2 |
is N-alpha-acetylated |
N-alpha-acetylation |
|
| acidic AtFNR1 spot |
has acetylated |
Lys-175 and Lys-321 |
Arabidopsis thaliana |
| AtFNR isoforms |
contain |
conserved N-glycosylation site (Asn-Ala-Thr) |
Arabidopsis thaliana |
| plants growing under photorespiratory or nonphotorespiratory conditions |
show differences in |
PTMs, such as persulfidation and sulfenylation |
|
| other motifs |
accounted for |
about one-eighth of all N-glycosylation sites |
Colletotrichum graminicola |
| bacterial effectors |
induce |
post-translational modifications |
|
| AvrRpm1 |
induces ADP-ribosylation on |
(AtRIN4, RIN4, AT3G25070) |
Arabidopsis thaliana |
| Proteolytic removal of His-tag with factor Xa |
did not affect |
enzyme activity of MtNFH1 |
Medicago truncatula |
| O-glycosylation of RePRPs |
could be important for |
RePRP function |
Oryza sativa |
| isoleucine |
can functionally mimic |
acetylated threonine |
|
| N-terminal acetylation status of OsHYPK in (NAA10, AT5G13780) RNAi plants |
was reduced to 66.7% compared with 80.6% in wild type |
reduced N-terminal acetylation of OsHYPK |
Oryza sativa |
| sesquiterpenes and triterpenes |
are required for |
prenylation of proteins |
|
| nonhistone proteins |
are frequently |
acetylated |
|
| Lysine acetylation (Kac) |
plays key role in |
catalytic activity |
|
| (ML3, AT5G23820) |
was identified as |
putatively NEDD8-modified protein |
Arabidopsis thaliana |
| membrane-bound arabinogalactan proteins (AGPs) |
have |
GPI anchor |
|
| protein post-translational modifications (PTMs) |
have crucial roles in regulating |
fungal development and virulence |
Fusarium graminearum |
| modification and binding of ubiquitin-related proteins to (ML3, AT5G23820) |
may be suggestive for |
regulatory interplay between modifier proteins |
Arabidopsis thaliana |
| SR protein abundance |
is substantially regulated by |
post-translational modifications |
|
| O-glycosylation |
is |
important protein post-translational modification conserved from bacteria to humans |
|
| AvrAC |
uridylates |
(APK2A, Kin1, PBL2, AT1G14370) |
|
| plant protein phosphorylation |
has been extensively studied from the perspective of |
protein kinases (PKs) and phosphorylation |
|
| all known GPI-anchoring proteins |
have |
hydrophobic C-terminal sequence |
|
| (ATRUB1, NEDD8, RUB1, AT1G31340) (NEURAL PRECURSOR CELL-EXPRESSED, DEVELOPMENTALLY DOWN-REGULATED PROTEIN8) |
is |
ubiquitin-like protein |
|
| ubiquitin-conjugated form of (ML3, AT5G23820) |
does not appear to be |
neddylated |
Arabidopsis thaliana |
| dioxygenase activity of recombinant PCO |
directly catalyzes |
Cys-sulfinic acid of synthesized short peptide covering residues 2–11 of ERFVII |
|
| CPKs |
are usually involved in |
phosphorylation |
|
| IP/MS assay |
verified |
OsHYPK A2P is not acetylated |
Oryza sativa |
| phosphorylation |
affects |
RNA-binding properties of (AtC3H66, TZF9, AT5G58620) |
|
| InLYP1 |
may have |
lipid-binding modification |
Arabidopsis thaliana |
| RePRPs |
fit with |
GPI-anchoring protein criteria |
Oryza sativa |
| OsIAA3(P58L) |
has |
single amino acid substitution from Pro to Leu at position 58 |
Oryza sativa |
| ubiquitinated forms of (ATFLS2, FLS2, AT5G63580) |
are almost undetectable in |
untreated control plants |
Arabidopsis thaliana |
| some GPI-APs |
are further processed through |
proteolysis |
|
| SKU5-SIMILAR (SKS) proteins |
have |
GPI anchor |
|
| SUMOylation |
involves |
SUMO (SMALL UBIQUITIN-LIKE MODIFIER) |
|
| (CLE1, AT1G73165) and CLE-RS2 (CLE-RS2 is a post-translationally arabinosylated glycopeptide derived from the CLE domain) |
undergo |
post-translational regulation |
Arabidopsis thaliana |
| cluster mainly composed by vascular tissues |
is defined by functions related to |
ubiquitination |
Pinus pinaster |
| mutations in GSNOR1/ (ADH2, ATGSNOR1, GSNOR, HOT5, PAR2, AT5G43940) |
cause |
proteome-wide increased S-nitrosylation |
Arabidopsis thaliana |
| Met residue removal |
exposes |
Cys residue |
|
| posttranslational modifications (PTMs) |
include |
phosphorylation |
|
| bacterial acetyltransferase effector HopZ5 |
directly modifies |
(AtRIN4, RIN4, AT3G25070) T166 with acetyl moiety |
Pseudomonas syringae |
| thousands of itaconation events |
have been identified in |
macrophages |
|
| parthenolide |
can deplete |
detyrosinated form of α-tubulin |
Nicotiana tabacum |
| K63 polyubiquitinated pool of (ATIRT1, IRT1, AT4G19690) |
is also |
phosphorylated |
Arabidopsis thaliana |
| (ATRBOHD, DELT1, RBOHD, AT5G47910) |
is regulated by |
nitrosylation |
Arabidopsis thaliana |
| small ubiquitin-related modifier 1 (ATSUMO1, SUM1, SUMO 1, SUMO1, AT4G26840) |
downregulated by high nitrogen availability at 28 days post-anthesis (DPA) |
grain development |
|
| (SIM, AT5G04470) 'VIDL' between positions 256 and 259 |
had highest prediction score at 38.183, which reached maximum prediction score within |
peptidyl-prolyl cis–trans isomerase (PPIase) peptide sequence |
|
| a small fraction of a given protein |
is |
SUMOylated |
|
| SNOWY COTYLEDON4 (SCO4, AT5G60750) |
is hypothesized to be required for |
critical protein modifications within chloroplasts |
Arabidopsis thaliana |
| hydrogen peroxide (H2O2) |
achieves primary biological function through |
post-translational modifications of proteins |
|
| S-nitrosylation |
causes alterations in |
subcellular localization |
|
| posttranslational modifications (PTMs) |
include |
N-myristoylation |
|
| OsHYPK A2P mutant |
is |
predicted non-acetylated N-terminal amino acid |
Oryza sativa |
| N-glycosylation directly targeting ER chaperone protein CgCNX1 |
regulates |
protein glycosylation |
Colletotrichum graminicola |
| posttranslational modifications |
are crucial for function of |
BBX proteins |
|
| Jab1/MPN domain metalloenzyme (JAMM) motif |
is critical for |
COP9's (ATRUB1, NEDD8, RUB1, AT1G31340) isopeptidase activity |
|
| AGP domain |
is |
core protein backbone for the linking of glycosylated side chains by Hyp residues |
|
| proper GPI processing |
relies on |
C-terminal hydrophobic residues |
|
| S-nitrosylation |
is |
enzyme-independent protein modification |
|
| sumoylation of (AtSTOP1, STOP1, AT1G34370) |
is hypothesized to be a signal for |
ubiquitination of (AtSTOP1, STOP1, AT1G34370) |
|
| ADP-ribosylation activity |
is reminiscent of |
protein poly(ADP-ribosy)lation (PARylation) by poly(ADP-ribose) polymerases (PARPs) |
|
| proteins expressed in vivo |
have |
post-translational modifications |
Arabidopsis thaliana |
| major lipid droplet protein (MLDP) |
lacks |
putative conserved site for prenylation |
Dunaliella bardawil |
| SRN proteins expressed in transient expression system |
were predicted to be modified |
posttranslationally |
Cucumis sativus |
| N α-acetylation of proteins |
is |
major posttranslational modification (PTM) taking place in eukaryotes |
|
| clock proteins |
have |
multiple layers of post-translational modifications (PTMs) |
|
| RCS such as hydroxynonenal (HNE), acrolein, and malondialdehyde |
react with |
nucleophilic groups in biomolecules |
|
| ascorbate peroxidase (APX) |
is subject to |
several forms of post-translational modification (PTM) |
|
| phosphoglycerate kinase |
activity changes upon |
Lys acetylation |
|
| N α-acetylation |
occurs preferentially at |
Ala, (REM11, VAL, AT5G60140) and Ser |
Arabidopsis thaliana |
| interaction with TGB1 |
disturbs or disrupts |
NbHIPP26 lipidation |
Nicotiana benthamiana |
| Poly (ADP-ribose) polymerase (PARP) |
catalyses |
transfer of ADP-ribose groups from NAD to nuclear protein acceptors |
|
| identified glycoproteins |
were involved in |
GPI anchor modification |
Colletotrichum graminicola |
| N-glycosylation directly targeting ER chaperone protein CgCNX1 |
regulates |
protein processing |
Colletotrichum graminicola |
| 2-hydroxyisobuturylation |
is |
lysine modification |
Oryza sativa |
| AtFNR isoforms |
lack evidence for |
in vivo phosphorylation |
Arabidopsis thaliana |
| basic AtFNR1b spot |
contains |
none or very few N-alpha-acetylated peptides |
Arabidopsis thaliana |
| (ATFTA, FTA, PFT/PGGT-IALPHA, PLP, AT3G59380) (α-subunit of protein farnesyltransferase) |
is |
common subunit shared by farnesyltransferase and geranylgeranyltransferase type I |
Arabidopsis thaliana |
| critical conserved residues |
some of which are modified by |
phosphorylation |
Arabidopsis thaliana |
| Arabidopsis thaliana leaf-type FERREDOXIN-NADP+ OXIDOREDUCTASE (FNR) isoforms |
exist as |
two distinct forms with different isoelectric points |
Arabidopsis thaliana |
| dithiol–disulfide exchange reactions |
participate in |
post-translational modification of proteins |
|
| N α-acetylation |
has been described in |
nucleus- and chloroplast-encoded plastid proteins |
|
| acetylation of Lys-321/330 |
is plausible to affect |
enzyme activity |
Arabidopsis thaliana |
| D1 |
is N-alpha-acetylated |
N-alpha-acetylation |
|
| similar N-terminal peptides |
were also identified in |
nonacetylated forms |
Arabidopsis thaliana |
| in vitro phosphorylation of pea FNR |
has been detected |
|
Pisum sativum |
| 351 total N-glycosylated proteins |
57.3% had |
only one N-glycosylation site |
Colletotrichum graminicola |
| GPI anchor |
is added to |
C terminus of protein |
|
| (ATRUB1, NEDD8, RUB1, AT1G31340) and ubiquitin modification and interactions with (ML3, AT5G23820) |
are |
very intriguing |
Arabidopsis thaliana |
| signal proteins involved in pollen tube guidance |
require |
modifications occurring in the ER |
Arabidopsis thaliana |
| all membrane-bound AtFNR forms |
show no reliable detection of |
methylation |
Arabidopsis thaliana |
| posttranslational modifications |
induce changes of |
metabolic activities |
|
| second amino acid is Ala, Gly, Pro, Ser, or Thr |
leads to |
removal of initiating Met by Met aminopeptidase |
Solanum tuberosum |
| Met was removed when second side chain was Lys, Ala, Pro, Ser, Thr, or (REM11, VAL, AT5G60140) |
and not removed when it was |
Lys, Asn, Asp, or Gln |
Solanum tuberosum |
| phosphorylation of NON-EXPRESSOR OF PR GENES 1 (ATNPR1, NIM1, NPR1, SAI1, AT1G64280) |
did not increase proportionally to |
increase in NON-EXPRESSOR OF PR GENES 1 (ATNPR1, NIM1, NPR1, SAI1, AT1G64280) monomers in low R:FR |
|
| corresponding residue in AtFNR2 |
was not |
acetylated |
Arabidopsis thaliana |
| Met sulfoxidation |
followed by |
Pro oxidation (either hydroxylation or carbonylation) and Lys hydroxylation |
Solanum tuberosum |
| many low-abundance proteins (−4.65 to −3.0 [log10 (dNSAF)]) |
also showed |
large number of oxidation sites, up to 25 sites |
Solanum tuberosum |
| lipoic acid (LA) |
is covalently attached to |
ε-amino group of lysyl residue |
|
| acetylation of Lys-175 in AtFNR1 and lack of acetylation in AtFNR2 |
could confer |
distinguishing features between the isoforms |
Arabidopsis thaliana |
| arabinogalactan proteins |
are |
highly glycosylated proteins |
|
| ATP synthase |
undergoes |
Lys acetylation |
|
| rNAD-ME1 |
had constitutive |
(PPDK, AT4G15530) phosphorylation throughout 24-h cycle |
Kalanchoe fedtschenkoi |
| chloroplast proteins |
are modified by |
phosphorylation |
|
| phosphorylation |
tends to occur in |
disordered regions of CELLULOSE SYNTHASE A (CESA) protein |
|
| phosphorylation in N-terminal region of CELLULOSE SYNTHASE A (CESA) |
alters |
interactions of cellulose synthase complexes (CSCs) with proteins anchoring them to cytoskeleton |
|
| level of ubiquitylated species |
did not differ among |
WT, (APG7, ATAPG7, ATATG7, ATG7, PEUP4, AT5G45900) (AtNBR1, NBR1, AT4G24690) and double mutants under non-stressed conditions |
|
| Acetylation of Lys |
was not found to be |
light responsive |
|
| acetylation of Lys residues |
is one of |
multiple regulatory levels of AtFNR |
Arabidopsis thaliana |
| two mitochondrially encoded proteins |
were identified with |
intact N termini |
Solanum tuberosum |
| rPPDK1 |
had phosphorylation level of PPC very similar to |
wild type |
Kalanchoe fedtschenkoi |
| YFP-GS protein |
exhibits |
multiple and/or smeared bands |
|
| AI cell |
shows enrichment in |
GO terms associated with ribosome biogenesis, translation, protein modification, intracellular transport, substrate-specific transporters, ion channel activity, kinase activity, and DNA replication |
Hieracium praealtum |
| NAP1-family proteins |
are known to be regulated by |
phosphorylation |
Arabidopsis thaliana |
| Lys acetylation (Lys acetylation) |
is |
modification of side chain amino group of Lys residues |
|
| acidic AtFNR1 and AtFNR2 spots |
contain |
N-alpha-acetylated peptides |
Arabidopsis thaliana |
| posttranslational N-alpha-acetylation (Nα-acetylation) |
targets |
mature nucleus-encoded chloroplast proteins |
|
| Lys acetylation |
occurs in |
nonhistone proteins |
|