Publications of Uris Ros
All genres
Journal Article (37)
1.
Journal Article
85 (2025)
MLKL activity requires a splicing-regulated, druggable intramolecular interaction. Molecular Cell 2.
Journal Article
742, 151071 (2025)
Extension of sticholysins N-terminal α-helix signals membrane lipids to acquire curvature for toroidal pore formation. Biochemical and Biophysical Research Communications 3.
Journal Article
280 (Pt 4), 136244 (2024)
Decoupling immunomodulatory properties from lipid binding in the α-pore-forming toxin Sticholysin II. International Journal of Biological Macromolecules 4.
Journal Article
114, 102778 (2023)
Calcium as a master regulator of ferroptosis and other types of regulated necrosis. Cell Calcium 5.
Journal Article
24 (12), 10108 (2023)
The Many Faces of MLKL, the Executor of Necroptosis. International Journal of Molecular Sciences 6.
Journal Article
15, 80 (2023)
The Important Role of Membrane Fluidity on the Lytic Mechanism of the α-Pore-Forming Toxin Sticholysin I. toxins 7.
Journal Article
28, pp. 3235 - 3250 (2022)
MLKL promotes cellular differentiation in myeloid leukemia by facilitating the release of G-CSF. Cell Death and Differentiation 8.
Journal Article
13 (3), pp. 822 - 829 (2022)
Systematic Assessment of the Accuracy of Subunit Counting in Biomolecular Complexes Using Automated Single-Molecule Brightness Analysis. The Journal of Physical Chemistry Letters 9.
Journal Article
13 (9), 669 (2021)
Force Mapping Study of Actinoporin Effect in Membranes Presenting Phase Domains. Toxins 10.
Journal Article
13 (8), 567 (2021)
Panorama of the Intracellular Molecular Concert Orchestrated by Actinoporins, Pore-Forming Toxins from Sea Anemones. Toxins 11.
Journal Article
69, pp. 108 - 116 (2021)
Techniques for studying membrane pores. Current Opinion in Structural Biology 12.
Journal Article
28 (5), pp. 1644 - 1657 (2021)
Ferroptotic pores induce Ca2+ fluxes and ESCRT-III activation to modulate cell death kinetics. Cell Death and Differentiation 13.
Journal Article
234, 105026 (2021)
Pore-forming proteins: From defense factors to endogenous executors of cell death. Chemistry and Physics of Lipids 14.
Journal Article
39 (23), e105753 (2020)
Pore formation in regulated cell death. The EMBO Journal 15.
Journal Article
21 (7), 2412 (2020)
Partners in Crime: The Interplay of Proteins and Membranes in Regulated Necrosis. International Journal of Molecular Sciences 16.
Journal Article
117 (9), pp. 1563 - 1576 (2019)
Membrane Remodeling by the Lytic Fragment of SticholysinII: Implications for the Toroidal Pore Model. Biophysical Journal 17.
Journal Article
218 (2), pp. 683 - 699 (2019)
Single event visualization of unconventional secretion of FGF2. Journal of Cell Biology 18.
Journal Article
156, pp. 109 - 117 (2019)
Self-association and folding in membrane determine the mode of action of peptides from the lytic segment of sticholysins. Biochimie 19.
Journal Article
148, pp. 18 - 35 (2018)
Sticholysin II-mediated cytotoxicity involves the activation of regulated intracellular responses that anticipates cell death. Biochimie 20.
Journal Article
110 (5) (2018)
Insights on the structure-activity relationship of peptides derived from Sticholysin II. Peptide Science 21.
Journal Article
9 (5), pp. 529 - 544 (2017)
Biophysical and biochemical strategies to understand membrane binding and pore formation by sticholysins, pore-forming proteins from a sea anemone. Biophysical Reviews 22.
Journal Article
138, pp. 20 - 31 (2017)
Differential binding and activity of the pore-forming toxin sticholysin II in model membranes containing diverse ceramide-derived lipids. Biochimie 23.
Journal Article
1859 (5), pp. 982 - 992 (2017)
Damage of eukaryotic cells by the pore-forming toxin sticholysin II: Consequences of the potassium efflux. Biochimica et Biophysica Acta: BBA 24.
Journal Article
19, pp. 175 - 187 (2017)
Necroptosis Execution Is Mediated by Plasma Membrane Nanopores Independent of Calcium. Cell Reports 25.
Journal Article
26 (3), pp. 550 - 565 (2017)
Disrupting a key hydrophobic pair in the oligomerization interface of the actinoporins impairs their pore-forming activity. Protein Science 26.
Journal Article
1858 (3), pp. 457 - 466 (2016)
Assembling the puzzle: Oligomerization of α-pore forming proteins in membranes. Biochimica et Biophysica Acta: BBA 27.
Journal Article
31 (36), pp. 9911 - 9923 (2015)
The Presence of Sterols Favors Sticholysin I-Membrane Association and Pore Formation Regardless of Their Ability to Form Laterally Segregated Domains. Langmuir 28.
Journal Article
116, pp. 70 - 78 (2015)
Differences in activity of actinoporins are related with the hydrophobicity of their N-terminus. Biochimie 29.
Journal Article
248 (3), pp. 545 - 561 (2015)
More Than a Pore: The Interplay of Pore-Forming Proteins and Lipid Membranes. The Journal of Membrane Biology 30.
Journal Article
290 (8), pp. 4856 - 4865 (2015)
Toxicity of an α-pore-forming toxin depends on the assembly mechanism on the target membrane as revealed by single molecule imaging. Journal of Biological Chemistry 31.
Journal Article
1838 (7), pp. 1752 - 1759 (2014)
Sticholysin I-membrane interaction: an interplay between the presence of sphingomyelin and membrane fluidity. Biochimica Et Biophysica Acta 32.
Journal Article
1828 (11), pp. 2757 - 2762 (2013)
The sticholysin family of pore-forming toxins induces the mixing of lipids in membrane domains. Biochimica et Biophysica Acta: BBA 33.
Journal Article
100 (4), pp. 337 - 346 (2013)
Functional and topological studies with Trp-containing analogs of the peptide StII(1-30) derived from the N-terminus of the pore forming toxin sticholysin II: contribution to understand its orientation in membrane. Peptide Sciences 34.
Journal Article
36 (5), pp. 781 - 791 (2011)
The membranotropic activity of N-terminal peptides from the pore-forming proteins sticholysin I and II is modulated by hydrophobic and electrostatic interactions as well as lipid composition. Journal of Biosciences 35.
Journal Article
50 (8), pp. 1201 - 1204 (2007)
Correlations between differences in amino-terminal sequences and different hemolytic activity of sticholysins. Toxicon 36.
Journal Article
50 (6), pp. 731 - 739 (2007)
Sticholysins I and II interaction with cationic micelles promotes toxins' conformational changes and enhanced hemolytic activity. Toxicon 37.
Journal Article
84 (2), pp. 169 - 180 (2006)
Model peptides mimic the structure and function of the N-terminus of the pore-forming toxin sticholysin II. Biopolymers (Peptide Science) Book Chapter (2)
38.
Book Chapter
351, pp. 197 - 236 (Eds. Spetz, J. K. E.; Galluzzi, L.) (2020)
Chapter six: A lipid perspective on regulated cell death. In: International Review of Cell and Molecular Biology, Vol. 39.
Book Chapter
29, pp. 201 - 247 (Eds. Iglič, A.; Rappolt, M.; García-Sáez, A. J.). Academic Press (2019)
Tuning the way to die: implications of membrane perturbations in necroptosis. In: Advances in Biomembranes and Lipid Self-Assembly, Vol.