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Poma A.B., Site L.D., Separation of variables in molecular-dynamics simulations: A criterion to estimate the quality of the approximation,
PHYSICAL REVIEW E, 78, 056703-1-11, 2008 |  |
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Poma A.B., Theodorakis P.E., Generalization of the Elastic Network Model for the Study of Large Conformational Changes in Proteins,
BPS2018, 62ND ANNUAL MEETING OF THE BIOPHYSICAL SOCIETY, 2018-02-17/02-21, SAN FRANCISCO (US), 114, 46A-, 2018 |  |
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Poma A.B., Tran T.M.T., Lam T.M.T., Hoang N.L., Mai L.S., Nanomechanical stability of Aβ tetramers and fibril-like structures: molecular dynamics simulations,
JOURNAL OF PHYSICAL CHEMISTRY B, 125, 28, 7628-7637, 2021 | |
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Poma Bernaola A., Boosting plastic degradation by a novel enzymatic paradigm,
EUROPEAN SUMMIT OF INDUSTRIAL BIOTECHNOLOGY (ESIB), 2019-11-18/11-20, GRAZ (AT), 48-, 2019 | |
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Poma Bernaola A., Filipek S., Park P.H., Nanomechanical Differences between Inactive and Active States of Rhodopsin from Molecular-Scale Simulation,
64TH ANNUAL MEETING OF THE BIOPHYSICAL SOCIETY, 2020-02-15/02-19, SAN DIEGO, CALIFORNIA (US), 2456-Pos-502a-502a, 2020 | |
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Poma Bernaola A., Guzman V.H., Li M.S., Theodorakis P.E., Mechanical and thermodynamic properties of Aβ42, Aβ40 and α-synuclein fibrils from molecular-scale simulation,
APS MARCH MEETING 2019, AMERICAN PHYSICAL SOCIETY MARCH MEETING, 2019-03-04/03-08, BOSTON (US), 2174-, 2019 | |
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Poma Bernaola A., Guzman V.H., Li M.S., Theodorakis P.E., Mechanical and thermodynamic properties of Aβ42, Aβ40, and α-synuclein fibrils: a coarse-grained method to complement experimental studies,
BEILSTEIN JOURNAL OF NANOTECHNOLOGY, 10, 500-513, 2019 | |
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Poma Bernaola A., Moreira R., Liu Z., Nash M., Optimisation of the mechanical stability of anticalin:CTLA-4 protein complex via GoMARTINI simulations,
HÜNFELD 2021: WORKSHOP ON COMPUTER SIMULATION AND THEORY OF MACROMOLECULES, 2021-04-23/04-24, VIRTUAL MEETING (DE), 110-, 2021 | |
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Poniżnik Z., Basista M., Modelling of overall material properties and crack reinforcement by bridging fibres in metal-ceramic composites with interpenetrating phase microstructure,
1ST INTERNATIONAL CONFERENCE ON DAMAGE MECHANICS, 2012-06-25/06-27, BELGRADE (XS), 273-276, 2012 | |
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Poniżnik Z., Basista M., Nowak Z., Modeling of effective elastic constants and fracture toughness in metal-ceramic composites with interpenetrating microstructure,
ICF13, 13TH INTERNATIONAL CONFERENCE ON FRACTURE, 2013-06-16/06-21, BEIJING (CN), S12-009, 81-, 2013 | |
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Poniżnik Z., Nowak Z., Basista M., Numerical modeling of deformation and fracture of reinforcing fibers in ceramic-metal composites,
INTERNATIONAL JOURNAL OF DAMAGE MECHANICS, 26, 5, 711-734, 2017 | |
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Poniżnik Z., Nowak Z., Basista M., Numerical modeling of fracture toughness of metal-ceramic interpenetrating phase composites with account of material microstructure,
SOLMECH 2016, 40TH SOLID MECHANICS CONFERENCE, 2016-08-29/09-02, WARSZAWA (PL), P198, 1-2, 2016 | |
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Poniżnik Z., Nowak Z., Basista M., Numerical modeling of crack growth in interpenetrating metal-ceramic composites,
ICDM2, 2ND INTERNATIONAL CONFERENCE ON DAMAGE MECHANICS, 2015-07-08/07-11, TROYES (FR), 41-, 2015 | |
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Poniżnik Z., Salit V., Basista M., Gross D., Effective elastic properties of interpenetrating phase composites,
COMPUTATIONAL MATERIALS SCIENCE, 44, 813-820, 2008 | |
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Poński M., Pokorska-Służalec I., Burczyński T., Multiscale Modeling of Concrete with Nano-Ingredients,
COMPLAS 2023, XVII INTERNATIONAL CONFERENCE ON COMPUTATIONAL PLASTICITY. FUNDAMENTALS AND APPLICATIONS, 2023-09-05/09-07, BARCELONA (ES), 1-, 2023 | |
