Chemical Crystallography at the Interface of Physics, Chemistry, and Engineering: Structure Determination of Highly Correlated Extended Solids, Main Group Compounds, Coordination Complexes, and Bioceramics
Multi-disciplinary research is essential to address the major challenges in science, engineering, and medicine. For these three areas, crystallography has played and continues to play a huge role by providing researchers with the means to determine the structure of a compound and relate these to its...
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ndltd-LSU-oai-etd.lsu.edu-etd-10242012-1110222013-01-07T22:54:13Z Chemical Crystallography at the Interface of Physics, Chemistry, and Engineering: Structure Determination of Highly Correlated Extended Solids, Main Group Compounds, Coordination Complexes, and Bioceramics McCandless, Gregory Todd Chemistry Multi-disciplinary research is essential to address the major challenges in science, engineering, and medicine. For these three areas, crystallography has played and continues to play a huge role by providing researchers with the means to determine the structure of a compound and relate these to its properties. This dissertation is highly interdisciplinary, focusing on structure determination of complex systems and materials with tailored applications. This work includes the characterization by single crystal and powder X-ray diffraction of intermetallic extended solids, layered metal oxides, inorganic complexes, discrete organic molecules, and bioceramics. These projects range from modeling translational disorder with pseudo-hexagonal symmetry (Yb2Pd3Ga9), determining the influence of chemical doping on structure and physical properties (P-, Yb-, Co-, and Cu-doping of CaFe4As3 and Mn-doping of Sr3Ru2O7), elucidating the structure of transition metal corrole complexes to understand its regioselectivity of various substituents and its electrochemical tenability, unmasking a high temperature binary polymorph (CoAs), identifying a minor organic product (dimer of two planar fused-carbon ring moieties) that may help mechanistically how to improve synthetic yields, and developing implants from porous, biodegradeable, and mechanically strong scaffolded composite materials (akermanite and poly-epsilon-caprolactone) for bone tissue regeneration. Knowing what is structurally important in a compound and how to best obtain this information are both vital in the process of revealing the structure and making property correlations. Wahab, Muhammad A. Young, David P. Dutrow, Barbara L. Garno, Jayne C. Stanley, George G. LSU 2012-10-31 text application/pdf http://etd.lsu.edu/docs/available/etd-10242012-111022/ http://etd.lsu.edu/docs/available/etd-10242012-111022/ en restricted I hereby certify that, if appropriate, I have obtained and attached herein a written permission statement from the owner(s) of each third party copyrighted matter to be included in my thesis, dissertation, or project report, allowing distribution as specified below. I certify that the version I submitted is the same as that approved by my advisory committee. I hereby grant to LSU or its agents the non-exclusive license to archive and make accessible, under the conditions specified below and in appropriate University policies, my thesis, dissertation, or project report in whole or in part in all forms of media, now or hereafter known. I retain all other ownership rights to the copyright of the thesis, dissertation or project report. I also retain the right to use in future works (such as articles or books) all or part of this thesis, dissertation, or project report. |
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Chemistry McCandless, Gregory Todd Chemical Crystallography at the Interface of Physics, Chemistry, and Engineering: Structure Determination of Highly Correlated Extended Solids, Main Group Compounds, Coordination Complexes, and Bioceramics |
description |
Multi-disciplinary research is essential to address the major challenges in science, engineering, and medicine. For these three areas, crystallography has played and continues to play a huge role by providing researchers with the means to determine the structure of a compound and relate these to its properties. This dissertation is highly interdisciplinary, focusing on structure determination of complex systems and materials with tailored applications. This work includes the characterization by single crystal and powder X-ray diffraction of intermetallic extended solids, layered metal oxides, inorganic complexes, discrete organic molecules, and bioceramics.
These projects range from modeling translational disorder with pseudo-hexagonal symmetry (Yb2Pd3Ga9), determining the influence of chemical doping on structure and physical properties (P-, Yb-, Co-, and Cu-doping of CaFe4As3 and Mn-doping of Sr3Ru2O7), elucidating the structure of transition metal corrole complexes to understand its regioselectivity of various substituents and its electrochemical tenability, unmasking a high temperature binary polymorph (CoAs), identifying a minor organic product (dimer of two planar fused-carbon ring moieties) that may help mechanistically how to improve synthetic yields, and developing implants from porous, biodegradeable, and mechanically strong scaffolded composite materials (akermanite and poly-epsilon-caprolactone) for bone tissue regeneration. Knowing what is structurally important in a compound and how to best obtain this information are both vital in the process of revealing the structure and making property correlations.
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Wahab, Muhammad A. |
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Wahab, Muhammad A. McCandless, Gregory Todd |
author |
McCandless, Gregory Todd |
author_sort |
McCandless, Gregory Todd |
title |
Chemical Crystallography at the Interface of Physics, Chemistry, and Engineering: Structure Determination of Highly Correlated Extended Solids, Main Group Compounds, Coordination Complexes, and Bioceramics |
title_short |
Chemical Crystallography at the Interface of Physics, Chemistry, and Engineering: Structure Determination of Highly Correlated Extended Solids, Main Group Compounds, Coordination Complexes, and Bioceramics |
title_full |
Chemical Crystallography at the Interface of Physics, Chemistry, and Engineering: Structure Determination of Highly Correlated Extended Solids, Main Group Compounds, Coordination Complexes, and Bioceramics |
title_fullStr |
Chemical Crystallography at the Interface of Physics, Chemistry, and Engineering: Structure Determination of Highly Correlated Extended Solids, Main Group Compounds, Coordination Complexes, and Bioceramics |
title_full_unstemmed |
Chemical Crystallography at the Interface of Physics, Chemistry, and Engineering: Structure Determination of Highly Correlated Extended Solids, Main Group Compounds, Coordination Complexes, and Bioceramics |
title_sort |
chemical crystallography at the interface of physics, chemistry, and engineering: structure determination of highly correlated extended solids, main group compounds, coordination complexes, and bioceramics |
publisher |
LSU |
publishDate |
2012 |
url |
http://etd.lsu.edu/docs/available/etd-10242012-111022/ |
work_keys_str_mv |
AT mccandlessgregorytodd chemicalcrystallographyattheinterfaceofphysicschemistryandengineeringstructuredeterminationofhighlycorrelatedextendedsolidsmaingroupcompoundscoordinationcomplexesandbioceramics |
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1716478242623324160 |