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Premium The in‐vitro biocompatibility of ureido‐pyrimidinone compounds and polymer degradation products
Author(s)
Besseling Paul J.,
Mes Tristan,
Bosman Anton W.,
Peeters Joris W.,
Janssen Henk M.,
Bakker Maarten H.,
Fledderus Joost O.,
Teraa Martin,
Verhaar Marianne C.,
Gremmels Hendrik,
Dankers Patricia Y. W.
Publication year2021
Publication title
journal of polymer science
Resource typeJournals
PublisherJohn Wiley & Sons
Abstract Supramolecular biomaterials based on ureido‐pyrimidinone (UPy) moieties are versatile polymer materials as their function can be tailored to the application. These UPy‐materials can be designed into polymer coatings, self‐healing polymers, hydrogels and elastomers. The biocompatibility of UPy‐based materials and their degradation products is a long‐term success requirement for many regenerative medicine and biomedical applications. Earlier research has shown that UPy‐based materials and polymers display no immediate toxic effects, but in‐depth in‐vitro studies on potential UPy‐polymer degradation products have not been executed. Owing to their resemblance to naturally occurring purines and pyrimidines, UPy‐compounds and their degradation products could potentially initiate an immune response or be mutagenic. Accordingly, 11 selected UPy‐compounds were synthesized, and their effect on cell viability, wound healing, and their immunogenicity and potential mutagenic potential, were studied. We showed that low molecular weight degradation products of UPy‐based biomaterials do not affect cell viability, nor do these interfere with several aspects of endothelial function including proliferation, angiogenic sprouting and cellular migration even in levels exceeding plausibly attainable concentrations. Furthermore, the compounds are neither immunogenic nor mutagenic, showing that UPy‐biomaterials exhibit good biocompatibility in vitro, and could in principle be used in humans.
Subject(s)biochemistry , biocompatibility , biology , biomedical engineering , biophysics , chemistry , computer science , degradation (telecommunications) , in vitro , materials science , medicine , molecule , nanotechnology , organic chemistry , polymer , polymer chemistry , self healing hydrogels , supramolecular chemistry , supramolecular polymers , telecommunications , tissue engineering , viability assay
Language(s)English
eISSN2642-4169
pISSN2642-4150
DOI10.1002/pol.20210072

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