Abstract:
Self-assembling peptides are quickly proving themselves useful in tissue engineering and most recently, electronics. Self-assembling peptides have been shown to form a network of nanofibers that can be used in scaffold research or as templates for nanowires. However, self-assembling peptides have not been widely studied and further research is needed to fully understand the properties and organization of the peptide hydrogels. Much research has been conducted with single cell type scaffolds; however, the next step is to develop multiple cell type scaffolds. In addressing this next step, I studied mixtures of in-solution peptides using atomic force microscopy to characterize nanofiber formation. My results showed that when RID12 peptide was introduced into a mixture with RAD16 peptide, there was a decrease in the average fiber length. Increasing the percentage of RID12 resulted in a further decrease in fiber length. Presumably, RID12 interacts with RAD16, thereby disrupting fiber elongation. Further research is necessary to understand this interaction.
Description:
Thesis (S.B.)--Massachusetts Institute of Technology, Dept. of Materials Science and Engineering, 2004.; Includes bibliographical references (leaves 19-20).
