Top Banner
University of Pennsylvania MRSEC Michael L. Klein DMR-0520020 IRGs 3 and 4: Designing Mutations on the Interior Surface of Ferritin-Like Proteins - Jeffery Saven and Ivan Dmochowski Ferritin proteins are protein assemblies with 4-8 nm interior cavities that provide a versatile, biocompatible platform for the synthesis and encapsulation of oxide and metal nanoparticles. Computational design was used to identify hydrophobic mutations of Dps (up to 120 per dodecamer) consistent with the known structure. The structures and rates of iron mineralization for the mutants are comparable to that of the natural protein We find that Ferritin-like proteins are robust with respect to designed interior mutations These proteins may provide vehicles for synthesis and improved bioavailability of nanoparticles. Models of Dps wild type and mutant with 10 designed hydrophobic mutations per subunit.
1

Models of Dps wild type and mutant with 10 designed hydrophobic mutations per subunit.

Jan 28, 2016

Download

Documents

adonica

University of Pennsylvania MRSEC Michael L. Klein DMR-0520020 IRGs 3 and 4: Designing Mutations on the Interior Surface of Ferritin-Like Proteins - Jeffery Saven and Ivan Dmochowski. - PowerPoint PPT Presentation
Welcome message from author
This document is posted to help you gain knowledge. Please leave a comment to let me know what you think about it! Share it to your friends and learn new things together.
Transcript
Page 1: Models of Dps wild type and mutant with 10 designed hydrophobic mutations per subunit.

University of Pennsylvania MRSEC Michael L. Klein DMR-0520020

IRGs 3 and 4: Designing Mutations on the Interior Surface of Ferritin-Like Proteins - Jeffery Saven and Ivan Dmochowski

Ferritin proteins are protein assemblies with 4-8 nm interior cavities that provide a versatile, biocompatible platform for the synthesis and encapsulation of oxide and metal nanoparticles. Computational design was used to identify hydrophobic mutations of Dps (up to 120 per dodecamer) consistent with the known structure. The structures and rates of iron mineralization for the mutants are comparable to that of the natural protein

We find that Ferritin-like proteins are robust with respect to designed interior mutations These proteins may provide vehicles for synthesis and improved bioavailability of nanoparticles.

Models of Dps wild type and mutant with 10 designed hydrophobic mutations per subunit.