Eren, Egemen Deniz2016-06-202016-06-202016-052016-052016-05-17http://hdl.handle.net/11693/29167Cataloged from PDF version of article.Includes bibliographical references (leaves 59-68).Thesis (M.S.): Bilkent University, Department of Materials Science and Nanotechnology, İhsan Doğramacı Bilkent University, 2016.Nature has been an inspiration and information source for scientists over centuries, for developing new materials. A great e ort has been spent in order to understand biological materials. The biomineralization process is observed in the nature and it creates perfectly hierarchical structures, which give the living organisms extraordinary properties. It is also a fact that along with the nature; living creatures such as nacre and bacteria employ biomineralization in order to produce minerals for protection and navigation purposes. In addition, bone is a composite material which protects the internal organs and provides mechanical support and is a result of biomineralization process. In this thesis, the biomineralization processes of living organisms and bone is mimicked by employing peptide amphiphile nano bers as templates for inorganic materials production. Glutamic acid residue is used in order the mimic the negatively charged domains for proteins, which play crucial roles in biomineralization process in some organisms and bone. In order to mimic the structure of sea shell, which is composed of calcium carbonate, and bone, which consists of calcium phosphate, relevant mineral solutions were used. In conclusion, when organic and inorganic components are used together, they demonstrate superior mechanical properties, when compared to organic molecules alone.xiv, 68 pages : charts.Englishinfo:eu-repo/semantics/openAccessPeptide amphiphilesSelf-assemblyBiomineralsMineralized composite gelsTemplate directed inorganic mineral synthesisCalcium phosphateCalcium carbonateEnhancement in mechanical propertiesThesisB153524