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Student Class
2026
Student Affiliation
WISP Intern
First Advisor
Katherine Hixon
First Advisor Department
Department of Engineering Sciences—Thayer School of Engineering
Second Advisor
Sreejith Panicker
Second Advisor Department
Department of Engineering Sciences—Thayer School of Engineering
Description
Manuka Honey (MH) contains the Unique Manuka Honey Factor (UMF), which is directly correlated to honey’s antibacterial efficiency and has a wide range of wound healing properties. In more recent years, MH has been incorporated into tissue-engineering scaffolds including cryogels, hydrogels, electrospun fibers, and electrosprayed nanoparticles. Tissue-engineered scaffolds can serve as alternative vehicles for delivery as compared to traditional wound dressings.The project objective was to investigate which of the four scaffold types can successfully incorporate MH (0, 1, 5, 10%) while retaining original parameters. We hypothesize that cryogels offer the best vehicle of delivery of MH because of increased durability (mechanical properties) compared to that of hydrogels and electrospun/electrosprayed scaffolds.
Publication Date
2023
Keywords
Manuka honey, scaffold, cryogel, hydrogel, electrospinning, electrospraying, SEM
Disciplines
Biomedical Engineering and Bioengineering | Molecular, Cellular, and Tissue Engineering
Dartmouth Digital Commons Citation
Adler, Calista; Mitchell, Karina; Panicker, Sreejith; and Hixon, Katherine R., "Tissue-Engineered Delivery of Manuka Honey" (2023). Wetterhahn Science Symposium Posters 2023. 3.
https://digitalcommons.dartmouth.edu/wetterhahn_2023/3
![Tissue-Engineered Delivery of Manuka Honey](https://digitalcommons.dartmouth.edu/wetterhahn_2023/1005/thumbnail.jpg)
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