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Ceramic coatings, combustion chemical vapor deposition, and thermal barrier coatings |
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Ceramic processing, ceramic foams, rheology of slurries, and powder processing. |
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Impedance spectroscopy of all classes of materials (electroceramics, conducting polymers, metallic alloys and composites). Characterization and applications of porous materials. Structure-property relationships, especially electrical and optical properties. |
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Microstructure/property relationship in advanced materials including composites, superplastics, magnetic and thin film layered structures. |
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Quantitative characterization and modeling of microstructures and fracture paths, damage evolution, microstructure-based modeling and simulations of materials behavior, Physical Metallurgy of Aluminum and Magnesium alloys, and steels. Biomaterials, coatings, oxidation of high temperature materials, ion beam modification of materials. |
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Vacuum electron devices, thin film coatings, crystal growth, skull melting, field emitter arrays, eutectic composites, powder metallurgy. |
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Mechanical behavior of advanced material systems (metallics, composites and bonded joints). Predictive modeling of fatigue, fracture, and non-linear material processes. Constituent level micromechanics modeling. |
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Fundamental properties and processes of materials, and predicting material behaviors, including phase transitions, glass transition, mechanical and magnetic properties in solids and liquids. |
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Defects and transport in solids, electrophysical and electrochemical behavior of thin films and interfaces, solid state ionics, and electroceramics. |
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Designing and characterizing colloids functionalized with biologically-relevant macromolecules such as oligonucleotides and cellular adhesion molecules. |
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Epitaxial heterostructures for biological agent sensors, pulsatile-release drug delivery device materials, and tissue engineered materials. |
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Synthesis, processing, and characterization of ceramics, glasses, and composites for advanced structural, electronic, and optical applications. |
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Novel reaction processing of a variety of ceramic-based materials for biomedical, sensor, refractory, electromagnetic, and structural applications. |
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Thermodynamics and phase equilibrium, physical metallurgy, phase transformations, solidification. |
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Corrosion, stress corrosion cracking, corrosion fatigue, high temperature oxidation, microstructure/property relationships in alloys and composite materials. |
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X-ray analysis, ceramic sciences. |
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Sintering of high-performance ceramics, ceramic actuators, gas-fired radiant emitters, smart feedback control, and thermophysical properties of materials. |
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High definition displays, molecular and chemical beam epitaxy, semiconductor tailoring and growth. |
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Polymer nanosynthesis, block co-polymers, metal nanocluster chemistry, interfacial chemistry and catalysis, coordination and conducting polymers. |
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Synthesis and processing of nanocrystalline intermetallics with unique structural, energetic, magnetic, and thermoelectric properties; investigation of shock-induced chemical reactions in intermetallic, ceramic, and thermite systems; and high-strain-rate deformation and fracture of metals, ceramics, and composites for applications in energy absorption and target penetration. |
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Science and applications of nanoparticles, nanowires and nanobelts; functional oxide and smart materials; nanomaterials for biomedical applications. |
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Polymers for electronic and photonic packaging. Conductive Adhesives. |
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©2008-2009 Georgia Institute of Technology :: Atlanta, Georgia 30332
Last Modified: Tuesday, February 05, 2008
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