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0
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Bacterial iron acquisition by Escherichia coli is facilitated by amino acid complexation in a rapid-renewal environment.
(pnas.org)
|
Lara-Gutierrez J
…
Stocker R
PNAS
2026-02-17
|
#proteomics
#microfluidics
#iron metabolism
#nutrient limitation
#bacterial physiology
|
|
0
|
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Mining lysine post-translational modification sites by integrating protein language model representations with structural context.
(pnas.org)
|
Luo M
…
Chen L
PNAS
2026-02-17
|
#modeling
#proteomics
#machine learning
|
|
0
|
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Pan-cancer N-glycoproteomic atlas of patient-derived xenografts uncovers FAT2 as an actionable surface target.
(linkinghub.elsevier.com)
|
Govindarajan M
…
Kislinger T
Cell Reports Medicine
2026-02-17
|
#proteomics
#cancer
#immunotherapy
#biomarker
|
|
0
|
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Proteomics landscape of early T-cell precursor acute lymphoblastic leukemia reveals deficient oxidative phosphorylation signatures.
(linkinghub.elsevier.com)
|
Liu M
…
Wang H
Cell Reports Medicine
2026-02-17
|
#proteomics
#metabolism
#mitochondrial
#biomarker
#leukemia
|
|
0
|
|
Mitochondrial remodeling and metabolic reprogramming drive long-term salinity adaptation in Tetrahymena thermophila.
(journals.asm.org)
|
Yuan F
…
Liu F
mSystems
2026-02-17
|
#proteomics
#metabolism
#transcriptomics
#adaptation
#stress
|
|
0
|
|
Leaderless RiPPs expand the repertoire of fungal secondary metabolites.
(pnas.org)
|
Park SC
…
Keller NP
PNAS
2026-02-17
|
#bioinformatics
#proteomics
#ripps
#secondary metabolites
#toxins
|
|
0
|
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Methionine-specific nonreversible bioconjugation: Advancing precision protein modification.
(pnas.org)
|
Wang S
…
Loh TP
PNAS
2026-02-17
|
#proteomics
#modification
#bioconjugation
|