Predicting Differential Protein-Protein Interactions
The paper develops a random forest model to predict differential protein-protein interactions between experimental conditions using MINT embeddings and mass spectrometry data.
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Saarland UniversityORCID 0000-0002-2180-9154Unclaimed ORCID profile · follow to get notified of new preprints
8 papers
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The paper develops a random forest model to predict differential protein-protein interactions between experimental conditions using MINT embeddings and mass spectrometry data.
Mykola Roiuk, Marilena Neff, Taja Vatovec…·Aurelio A. Teleman
The paper identifies DCP2 as an ISR-induced transcript whose translation is regulated by an overlapping ORF that acts as an inhibitory element, which is relieved during stress.
Aamna Jain, Alexander von der Malsburg, Cynthia Alsayyah…·Robert Ernst
This study characterizes the lipid composition of mammalian ER membranes using MemPrep, showing a common lipid profile across ER subdomains and linking lipid and protein biophysical properties.
Marijke Verhaegen, Marianne Croonenborghs, Nidhi Sorout…·Kurt Vermeire
Flavitransin inhibits dengue virus polyprotein insertion into the ER membrane, showing broad antiviral activity against flaviviruses.
Carole Luthold, Marie Didion, Vanessa Samira Rácz…·Sandra Iden
This study investigates how different extracellular matrix proteins and substrate stiffness affect melanocyte differentiation and mechanosensation, revealing context-dependent MITF regulation.
Alexandra Fischer, Hanah B. Robertson, Deqiang Kong…·Wilfried Weber
This study tunes the material properties of transcription factor condensates to show their impact on gene expression levels in mammalian cells and mice.
Lalitha Yadhanapudi, Mark Lommel, Pratiti Bhadra…·Karin Römisch
This study identifies Sbh1/Sec61β as a specific signal peptide receptor that recognizes and guides substrates into the Sec61 channel through its cytosolic IDR and conserved regions.
Hoang Thu Trang, Siba Shanak, Ahmad Barghash, Volkhard Helms
The paper connects differential exon usage in developmental stages to changes in histone marks at exon boundaries across 19 human tissues and cultured cells.