and able to withstand almost twice the strain achieved in the cuticle (and its M. edulis congener (Holten-Andersen et al., 2007, 2007, 2009a). M. galoprovincialis) Understanding these differences in binding tendencies and granule assemblies may contribute to the engineering of strain-tolerant, composite coatings for biomedical applications. Figure 3 - 9 Molecular schematic of mefp-1 and mcfp-1 binding to Fe3+. showing mcfp-1 binding to the surface and binding to Fe3+ but with free Dopa Left panel available for increased Fe3+-binding at high pH. For the sake of clarity, other amino acids are not shown showing mefp-1 with all available Dopa groups either Right panel binding to the surface or binding to Fe3+. Chapter 4. Enhanced wear protection conferred by mcfp1/HA coacervates
and able to withstand almost twice the strain achieved in the M. edulis cuticle (and its congener M. galoprovincialis) (Holten-Andersen et al., 2007, 2007, 2009a). Understanding these differences in binding tendencies and granule assemblies may contribute to the engineering of strain-tolerant, composite coatings for biomedical applications. Figure 3 - 9 Molecular schematic of mefp-1 and mcfp-1 binding to Fe3+. Left panel showing mcfp-1 binding to the surface and binding to Fe3+ but with free Dopa available for increased Fe3+-binding at high pH. For the sake of clarity, other amino acids are not shown Right panel showing mefp-1 with all available Dopa groups either binding to the surface or binding to Fe3+. Chapter 4. Enhanced wear protection conferred by mcfp1/HA coacervates
Miller_dissertation_corrections.docx