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Prediction of amphiphilic cell-penetrating peptide building blocks from protein-derived amino acid sequences for engineering of drug delivery nanoassemblies

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    SYSNO ASEP0534088
    Document TypeJ - Journal Article
    R&D Document TypeJournal Article
    Subsidiary JČlánek ve WOS
    TitlePrediction of amphiphilic cell-penetrating peptide building blocks from protein-derived amino acid sequences for engineering of drug delivery nanoassemblies
    Author(s) Feger, G. (FR)
    Angelov, Borislav (FZU-D) ORCID
    Angelova, A. (FR)
    Number of authors3
    Source TitleJournal of Physical Chemistry B. - : American Chemical Society - ISSN 1520-6106
    Roč. 124, č. 20 (2020), s. 4069-4078
    Number of pages10 s.
    Languageeng - English
    CountryUS - United States
    Keywordssmall-angle scattering ; structural-characterization ; bioactive peptides ; rational design ; active peptides ; helical peptide ; surfactant ; nanotubes
    Subject RIVBO - Biophysics
    OECD categoryBiophysics
    R&D ProjectsEF16_019/0000789 GA MŠMT - Ministry of Education, Youth and Sports (MEYS)
    EF15_003/0000447 GA MŠMT - Ministry of Education, Youth and Sports (MEYS)
    Method of publishingLimited access
    Institutional supportFZU-D - RVO:68378271
    UT WOS000537425700007
    EID SCOPUS85085265479
    DOI10.1021/acs.jpcb.0c01618
    AnnotationAmphiphilic molecules, forming self-assembled nanoarchitectures, are typically composed of hydrophobic and hydrophilic domains. Peptide amphiphiles can be designed from two, three, or four building blocks imparting novel structural and functional properties and affinities for interaction with cellular membranes or intracellular organelles. Here we present a combined numerical approach to design amphiphilic peptide scaffolds that are derived from the human nuclear K-i-67 protein. K-i-67 acts, like a biosurfactant, as a steric and electrostatic charge barrier against the collapse of mitotic chromosomes. The proposed predictive design of new K-i-67 protein-derived amphiphilic amino acid sequences exploits the computational outcomes of a set of web-accessible predictors, which are based on machine learning methods.
    WorkplaceInstitute of Physics
    ContactKristina Potocká, potocka@fzu.cz, Tel.: 220 318 579
    Year of Publishing2021
    Electronic addresshttps://doi.org/10.1021/acs.jpcb.0c01618
Number of the records: 1  

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