Peptide-Albumin Hydrogels for Cell Culture and Wounds Healing Applications
Reference Number: 12-38
Inventors: Xiuzhi Susan Sun and Hongzhou Huang
As Kansas State University (KSU) continues to advance its synthetic peptide (“h9e”) hydrogel technology portfolio, KSU researchers have discovered that albumin can be used to trigger the self-assembly of the peptides to form a hydrogel when mixed with medium used in cell culture, such as Minimum Essential Medium (MEM). Albumin is the most abundant protein in human blood and considered as one of the most important proteins for molecular transportation, pH balance, and maintaining osmotic pressure. Previously, research showed that the h9e peptides can self-organize into short nanofibers, under the trigger of salts or ions, including, for example Ca2+, Na+, Zn2+, or Mg2+, and the nanofibers would extend and further cross into hydrogel scaffolds. Utilizing albumin provides an additional self-assembling pathway.
With the rapid development of peptide hydrogel for biomedical applications, the physiological properties of the hydrogel materials as well as the mild trigger method from solution to hydrogel transition attracts more and more consideration for realistic use of these materials. This portfolio of intellectual property provides an updated method for developing peptide hydrogel without any additional chemical or environmental adjustment.
3D cell culture: Resulting hydrogel has desirable properties for 3D eukaryotic cell growth with a final peptide concentration as low as 1 mM (0.17%)
Albumin is the most abundant protein in human blood
Hydrogel is formed without any additional chemical or environmental adjustment
Improved 3D cell culture as a research tool for growing cells in a 3D matrix
Wound healing applications
Biomedical applications include excipient and drug delivery system.
- PCT application filed in December 2013.
Kansas State University Research Foundation seeks to have discussions with companies that are interested in licensing and/or research collaborations.
Interested parties should contact:
Kansas State University Institute for Commercialization (KSU-IC)
2005 Research Park Circle Manhattan, KS 66502
Tel: 785-532-3900 Fax: 785-532-3909