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Smart, Bio-Inspired Polymers and Bio-Based Molecules Modified by Zwitterionic Motifs to Design Next-Generation Materials for Medical Applications

Titelangaben

Lutz, Theresa M. ; De Breuck, Jonas ; Salehi, Sahar ; Leiske, Meike N.:
Smart, Bio-Inspired Polymers and Bio-Based Molecules Modified by Zwitterionic Motifs to Design Next-Generation Materials for Medical Applications.
In: Advanced Functional Materials. Bd. 36 (2026) Heft 40 . - e13765.
ISSN 1616-3028
DOI: https://doi.org/10.1002/adfm.202513765

Angaben zu Projekten

Projekttitel:
Offizieller Projekttitel
Projekt-ID
Design optimierter aminosäurebasierter zwitterionischer Polymere mit zellulärer Spezifität
535904448

Projektfinanzierung: Deutsche Forschungsgemeinschaft

Abstract

In philosophy, yin and yang symbolize opposing and simultaneously correlated forces. This pre-defined scenario occurs in nature as well, e.g., for zwitterionic materials. Both charges, either positive or negative, act individually, and it is not surprising that their interaction with, for example, tissue surfaces or cell membranes differs. However, the combination of the individual binding affinities allows for establishing and tuning strong and/or surface-specific interactions. To emphasize this relationship, this review describes novel, naturally-derived and bio-inspired (semi-)synthetic materials with zwitterionic motifs designed for medical applications. Accordingly, it is not only mentioned how these materials are further modified, functionalized, or synthetically designed to obtain zwitterionic charge profiles for addressing various pathological scenarios. It is equally important to highlight how the physicochemical properties of zwitterions contribute to achieving this goal. For this purpose, the detailed understanding and basic knowledge of mediated binding mechanisms and electrostatic interactions of zwitterionic materials with the physiological, aqueous environment and body/artificial surfaces are discussed in-depth to clarify the dynamics of zwitterionic moieties.

Weitere Angaben

Publikationsform: Artikel in einer Zeitschrift
Begutachteter Beitrag: Ja
Institutionen der Universität: Fakultäten > Fakultät für Biologie, Chemie und Geowissenschaften > Fachgruppe Chemie
Fakultäten > Fakultät für Biologie, Chemie und Geowissenschaften > Fachgruppe Chemie > Juniorprofessur Nachhaltige und funktionale Polymersysteme > Juniorprofessur Nachhaltige und funktionale Polymersysteme - Juniorprof. Dr. Meike Leiske
Titel an der UBT entstanden: Ja
Themengebiete aus DDC: 500 Naturwissenschaften und Mathematik > 540 Chemie
Eingestellt am: 16 Okt 2026 07:06
Letzte Änderung: 16 Okt 2026 07:06
URI: https://eref.uni-bayreuth.de/id/eprint/99978