“Antioxidant, antibacterial, injectable lignin-gelatin composite cryogels for wound healing and tissue engineering”
Abstract & Research Summary
A cryogel which includes lignin nanoparticles embedded in crosslinked gelatin. The cryogel is formed at subfreezing temperatures where aggregation of polymerized or cross linked materials is prevented by ice crystals. When thawed, the cryogel is a densely crosslinked microporous composi tion with a plurality of pores ranging from 50-150 um in size. The cryogel combines a natural bio waste polymer in the form of lignin together with a collagen derived natural polymer. Incorporation of lignin within gelatin improves the mechanical performance of the cryogel and enhances its shape recovery rate. The macropororous composition inhib its growth of both gram positive and gram negative bacteria. In addition, the macoporous composition exhibits excellent free radical scavenging activity. All of the properties make the cryogel an excellent material for wound healing and tissue engineering applications.
Annual Citation Trajectory
8 total citationsCite This Publication
@misc{memic2021antioxid,
title = {Antioxidant, antibacterial, injectable lignin-gelatin composite cryogels for wound healing and tissue engineering},
author = {A Memic, T Abudula},
howpublished = {US Patent Granted Patent (USPTO)},
year = {2021},
doi = {https://patents.google.com/patent/US10881760B2/en},
url = {https://doi.org/https://patents.google.com/patent/US10881760B2/en},
}Bibliographic Metadata
Related Research Works
Back to All Publications →“Designing 4D printed drug delivery systems based on smart polymers and hydrogels: principles, strategies, and future perspectives”
Progress in Biomedical Engineering
“High-solid acrylic resins based on bio-derived lauryl methacrylate for varnish and paint applications”
Journal of Polymer Research 33 (3), 92
“Computational modeling-enhanced photo-DSC for rapidly developing 4D printable body temperature-responsive self-healing and shape-memory photopolymers”
Smart Materials and Structures 35 (2), 025019