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SURF 2010 is for undergraduate science and engineering students to experience hands-on participation in the multidisciplinary field of materials research. Students will work on a one-to-one
basis under the mentorship of faculty from different disciplines at Georgia Tech, in advanced materials for biological, energy, structural, and sensor applications.
IREP 2010 is for SURF students to participate in research at an international site in Germany.
Students will travel to the University of Bayreuth in Bayreuth, Germany or the Canvendish Lab at the University of Cambridge in England for a period of six weeks from around June 9 to July 23. They
will work on projects with a faculty mentor along with his or her research group at the site.
Program Requirements
The SURF/IREP 2010 Program will run from June 2 to July 28, 2010. Both SURF and IREP
students will arrive on campus on Tuesday, June 1, 2010. There will be an orientation meeting at 11:00 am on Wednesday, June 2. Weekly pizza lunch meetings will be held, during
which the participating faculty will present an overview of materials related research activities in their group. Presentations will also be made on technical communications and guidelines for
grad school preparation. A one-day workshop on professional development focusing on entrepreneurship, ethics, and public policy will also be held. Field trips to different laboratories
on the campus of Georgia Tech, as well as at materials companies in the Atlanta and Georgia area will also be arranged.
The program will terminate with each SURF and IREP student making a presentation at a special closing ceremony on July 28,
2010, during which certificates acknowledging their participation in the program will be presented. The students will be required
to make an oral or poster presentation and submit a one-page extended abstract paper on the research performed during the course of the program.
Stipend
SURF/IREP Participants: SURF participants will receive a $4,100 stipend for the eight-week term. Free on-campus housing (or
equivalent allowance) will be provided. IREP Participants will receive the same stipend. Costs for their lodging while in Atlanta
and at the international site including international transportation will also be provided.
Research Program
Materials research is full of challenging and difficult problems and many critical technologies and engineering systems of the
future are dependent on advances in materials. Materials contain structural features, ranging from nanometer to millimeter length
scales, which bear direct link(s) to their synthesis and processing route(s). The structural features in turn determine the
properties of materials relevant to structural, chemical, electrical, optical, and energy applications. A thorough understanding of
process-structure-property correlation and links across length scales is essential for accurately predicting the performance of
materials in all engineering applications. The SURF/IREP Program will include research projects (listed below) focusing on Structure-Property Correlation Across Length Scales Advanced Materials for (A) Biological and Sensor Applications; (B) Structural and Extreme Environments, (C) Energy Applications, and (D) International Site Projects.
SURF/IREP 2010 Projects
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A. MATERIALS FOR BIOLOGICAL AND SENSOR APPLICATIONS
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Project
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Faculty Mentor
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Project Title
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Project Abstract
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A.1
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Jim Gole, Physics
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Nanostructures and Porous Silicon: Activity at Interfaces in Sensors and Photocatalytic Reactors
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It has become evident that the enhanced activity of nanoscale structures can have a profound affect on the development and modification of MEM/NEMS sensing/tagging/microreactor technology, providing new inroads
to create hybrid devices with greatly enhanced sensitivity and selectivity. Within this framework, our laboratories have been concerned with (1) the action of nanostructures as they are introduced to
nonporous/microporous interfaces and their subsequent ability to enhance interaction and thus to promote an increased sensitivity and a more efficient conversion and transduction,
(2) the development of facile, high yield, nanoscale, exclusive synthesis processes forming the novel interactive nanostructures necessary for this effective interface modification, and (3) the development of "Active" microfilters In developing these interfaces, we seek to identify the micro-nanoscale materials phenomenon that form the framework for new approaches to marking, tagging, and sensing.
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A.2
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Valeria Tohver Milam, MSE
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DNA Analogs for Bio-Inspired Colloidal Assembly & Disassembly
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We have successfully demonstrated that DNA can be employed for programmable recognition-based colloidal assembly and disassembly under isothermal conditions. The overall goal of this project is to explore
oligonucleotide analogs called locked nucleic acids (LNA) as a reversible materials assembly tool for biomaterials applications where temperature conditions are typically constant. LNA provides the
potential advantages of recognition-based assembly/disassembly with the added benefit of superior resistance to cleavage by DNA and RNA-cleaving enzymes called nucleases. This project will focus on
measuring duplex formation of mismatched and perfectly-matched LNA hybridization partners on microspheres and testing the stability of these duplexes in nuclease-rich solutions using quantitative flow cytometry.
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A.3
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Brent Wagner, GTRI
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Dot Array for Neural Signal Recording
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The goal of this program is to investigate the use of Quantum Dots (QDs) for electric signal sensing. The proposed work can potentially be used for neural signal recording. It is known that the phosphorescence of
QDs can be modulated by proximity to gold. By using an electrical signal to drive the statically charged QDs and pull them closer to a gold surface, QD photoluminescence quenching can be observed. This project
will involve experiments in the use of QDs attached to DNA strings (or similar) to create a device capable of detecting small voltages or charge.
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A.4
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Todd Sulchek, ME
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Creation of Pathogen Mimetics as Novel Drug Delivery Platforms
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We will develop microparticles which derive novel function by utilizing ligands derived from pathogens. We will use these pathogen mimetics to understand receptor mediated endocytosis and tissue barrier crossing.
Crossing the cell membrane is a necessary first step to infection by intracellular pathogens such as Influenza, Tuberculosis, and Listeria. Traversing important barriers such as the gut and blood-brain barriers
typically occurs through a receptor mediated process. However, quantitative spatio-temporal measurements of key steps in cell membrane crossing remain elusive. To investigate, we conjugate pathogenic ligands to
a bacterial mimetic with precise chemical control. The mimetic is then tracked during the process of endocytosis with fluorescent microscopy. The kinetics and efficiency of this endocytosis will be investigated,
as well methods to utilize the process for drug delivery
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B. STRUCTURAL AND EXTREME ENVIRONMENTS
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Project
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Faculty Mentor
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Project Title
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Project Abstract
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B.1
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Arun M. Gokhale, MSE
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Application of Digital Image Analysis to Characterize Microstrucutral Evolution in Microgravity Environment
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Gravity implicitly affects processing-microstructure relationships when material processing is performed on Earth. Therefore, experiments performed in reduced gravity or microgravity provide an interesting
opportunity to understand gravitational effects in the microstructural evolution. In this project, the student will use advanced digital image processing techniques to quantitatively characterize microstructures
of material specimens processed by NASA under microgravity conditions encountered in space shuttle/space station environments. The microstrucutral data will be utilized to understand the gravitational effects in
the evolution of material microstructures.
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B.2
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Rick Neu, ME
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Thermomechanical Fatigue of Ni-base Superalloys
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Ni-base superalloys are one of the highest temperature metal alloys used in applications requiring extreme temperature while maintaining good fatigue, creep, fracture toughness properties along with oxidation
resistance. Improved efficiency in gas turbine engines, both aerospace for propulsion and land-based for power generation, demand increases in temperature capability. The goal of this project is to
develop life prediction models for fatigue-oxidation interactions under complex thermal and mechanical cycles that this material would need to withstand in its application. This work involves
thermomechanical fatigue experiments, damage characterization in scanning electron microscopes, microstructure-sensitive viscoplasticity modeling, and determining the cyclic deformation behavior at potential
crack formation sites in components using the finite element method.
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B.3
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Preet Singh, MSE
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Selection of Materials for Superheater Tubes in Industrial Boiler
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One of the ways to achieve the maximum energy production efficiency is to operate the Industrial boiler at as high a superheated steam temperature as is possible in order to maximize the efficiency of the turbine
generator. The challenge, however, is to mitigate the corrosion problems in the superheater region through suitable tube materials that can resist the corrosion by partially molten deposits under oxidizing or
reducing gaseous conditions at operating temperatures. To increase the Industrial boiler steam temperature, it is important to understand the environment, as well as material performance in that environment.
Environment includes temperature, smelt composition, and gaseous composition at the tube surface. In this project, different alloys will be tested in simulated superheater environments. Materials selected for
this study will be based on studying the effect of alloying elements on formation of stable protective oxide film. Alloys that form Chromia, alumina and silica at the surface under test conditions will be
compared with commonly used alloys in commercial superheaters. Student will learn about the effect of alloying elements on corrosion performance of different alloys under harsh gaseous and molten salt
environments. Microscopy and X-ray diffraction techniques will also be used in this roject to identify the corrosion products.
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B.4
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Naresh Thadhani
MSE
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High-strain-rate Impact Characterization of Intermetallic-forming Reactive Materials
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Intermetallic-forming powder mixtures provide a new class of energetic (reactive) materials systems. Understanding of the high-strain-rate deformation and fracture response of the reactants under impact loading
is essential for control of reaction initiation and design of energetic materials. Uniaxial stress impact experiments will be performed on Al- or B-based intermetallic-forming powder mixtures in which the
deformation response will be monitored in real time using high-speed camera and velocity interferometry. Discrete particle simulations employing real microstructures captured using optical microscopy will be
performed and correlated with the deformation response observed in real time, to determine the mechanochemical processes involved in influencing the onset and propagation of reaction in these systems.
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B.5
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Robert Speyer, MSE
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Spectral Emissivity of ZrB2-based Ultra-high Temperature Composites
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Ultra-high Temperature Composites (UHTC's) are being developed for leading edges of scram-jets and re-entry vehicle, in which the velocities are such that plasma forms from the gas in contact with the leading
edges. Zirconium diboride-based compositions with additions of SiC and TaB2 are extremely refractory, and have been shown to be adequately oxidation resistant to those environments. In
addition, they are believed to be strong candidates for this application based on their good elevated temperature thermal conductivity (electrical conductor) which will draw heat away from the leading edge, and
good radiant emissivity which will re-radiate thermal energy from frictional heating to the cold surroundings. In this work, a spectral radiometer capable of reading out to infrared wavelengths of ~20 um
will be mated to a ribbon-heating system which will electrically heat test ribbons of ZrB2 to temperatures as high as 2000C. With this, the emissivity as a function of wavelength and temperature will be
measured.
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B.6
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Hamid Garmestani, MSE
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Carbon-Nanotube-Carbon Composite
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Carbon-Carbon (C-C) composite materials are modern expensive high tech materials which are produced carbon fibers that are embedded in a graphite matrix. In Contract to carbon fibers carbonanotubes (CNT’s) exceed
the materials properties which include great ductility, high aspect ratio, high tensile strength, and low mass density. They also have a large surface area, versatile electronic behavior, high heat
conductivity, and can be produced sufficiently at considerable low cost. A lot of effort is undertaken to build new polymer composite materials with aligned CNT’s. As a consequence the substitution of the
carbon fibers by CNT’s in C-C composites could lead to a new class of materials which might have even more superior properties. We have recently executed and proven the formation of CNT’s-C composite by using
Chemical Vapor Deposition (CVD) and Chemical Vapor Infiltration (CVI) Techniques. In this research we will investigate the formation or ordering of carbonanotubes through formation of interlayers that are
deposited by CVD. A comparison study with C-C composite will be carried out this see if the CNT’s-C has superior mechanical properties.
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C. ENERGY APPLICATIONS
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Project
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Faculty Mentor
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Project Title
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Project Abstract
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C.1
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W. Jud Ready, GTRI
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Carbon Nanotubes for Electronic Applications
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The SURF student will work in a team environment (currently 10 undergrads, 3 grads, 1 postdoc, 3 full-time) to study electronic applications of carbon nanotubes (CNTs). The applications are primarily
focused on the use of CNTs to form a 3-D light-trapping array for novel photovoltaic cells; as a field emission source for Hall Effect thrusters for satellite propulsion; and as anodes for Li ion
batteries. The student will utilize e-beam and thermal evaporators, sputterers, photolithography, clean room tools, electrical probe stations, scanning electron microscopy (SEM), x-ray diffractometers
(XRD), chemical vapor deposition (CVD), molecular beam epitaxy (MBE), ion beam assisted deposition (IBAD) equipment and other tools during the internship. Prior experience is useful but not necessary as
thorough training will be provided. Other CNT-enabled applications being studied are electrochemical double layer supercapacitors and CNT-functionalized carbon, quartz and basalt fabrics as well as the use
of CNTs in biological applications such as neural prosthetics.
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C.2
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Seung Soon Jang, MSE
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First-Principles Atomistic Modeling of surface modified Carbon Nanotube towards Electronics Applications
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Carbon nanotube (CNT) is a very unique 1-dimensional material with high mechanical strength and useful electrical properties (metallic and semiconducting), but its hydrophobic nature makes it difficult to find a
good processing condition. In this context, the surface modification of CNT seems to have a promising aspect since it may provide variety of processing condition. Through this short term research program, we
will investigate the surface modified CNT system to characterize the effect of such surface modification on the electronic properties of CNT. For this purpose, we will use the first-principles atomistic
modeling techniques such as quantum mechanics and molecular dynamics simulations.
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C.3
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Nazanin Basssiri-Gharb, ME
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Piezoelectric micro/nano-pillars for energy harvesting and medical ultrasound applications.
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High aspect ratio piezoelectric micro/nano-pillars are desirable for several NEMS/MEMS applications such as energy harvesters and high-resolution ultrasounds, but current (top-down) manufacturing methods used to
pattern piezoelectric materials cause surface damage and degradation of properties. The objective of this research is to investigate PbZr0.52Ti0.48O3 (PZT) nano-tubes/pillars, manufactured using a novel,
bottom-up approach that overcomes the above limitations. The work will focus on optimizing the processing conditions (precursor composition and concentration, single and multiple deposition heat treatment
profile, etc.) in order to obtain micron and submicron sized structures. The piezoelectric structures produced will then be characterized using x-ray diffraction, atomic force microscopy, and double beam
interferometery.
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C.4
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D. G. Bucknall, PTFE
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Polymer-Fullerene Nanocomposites
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Fullerenes when mixed with polymers can make dramatic changes to the properties of the polymer, however, the miscibility of fullerenes in polymers is poorly understood, thereby limiting their potential
effectiveness future devices such as solar cells and organic transistors. The overall aim of this project is to evaluate the miscibility behavior of fullerenes with well defined polymers and test theories
of miscibility to evaluate their behavior in thin films. The phase separation and segregation behavior of fullerenes in solar cells and organic transistors is vital to be able to control in order to
improve the device performance, the results from this project will therefore be essential for ultimately developing improved future devices.
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C.5
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Seth Marder, Chem/MSE
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Materials for Organic Electronic and Photonics
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Organic electronics and photonics materials are emerging as exciting solutions for the developing of lightweight, flexible, and inexpensive alternative to conventional inorganic and semiconductor devices for a
variety of information technology, and display applications. SURF students will receive exposure to the design, synthesis and characterization of materials for electronic and photonic applications. In
addition, students will receive training in the preparation of coherent research reports, a well as the preparation and delivery of scientific talks. In each case, in addition to supervision by Dr. Marder,
students will be paired with a postdoctoral or graduate student mentor.
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C.6
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Gleb Yushin, MSE
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High power supercapacitors
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Supercapacitors are rechargeable energy storage devices. They offer higher power, faster charging and significantly longer cycle life than Li-ion batteries. The goal of the project
will involve synthesis of advanced nanocomposite electrode materials with high surface area and improved energy storage characteristics as well as fabrication and testing of supercapacitors.
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C.7
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Hamid Garmestani, MSE
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Fabrication and characterization of YSZ thin films for solid oxide fuel cells electrolyte
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Excellent control over the microstructure of the solid oxide fuel cell (SOFC) components is essential for improving properties and the overall cell life. Traditional ceramic processing techniques are mainly
involved with high temperature processes and lack controllable parameters for tailoring the microstructure. In this project, spray pyrolysis is the method of interest for low-temperature fabrication of thin
films of YSZ electrolyte with enhanced properties for application in low-temperature SOFCs. Synthesis and characterization of dense YSZ thin films deposited on dense and porous cathode substrates of lanthanum
strontium manganite (LSM) will be investigated. The effect of variation of deposition parameters will be studied on the film density and particle-size distribution. Scanning electron microscopy (SEM) and x-ray
diffraction (XRD) will be used as the main characterization tools for microstructure analysis.
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C.8
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Faisal Alamgir, MSE
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Novel Surface Architecture Synthesis for Gas Separation and Fuel-Cell Catalyst Applications
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For energy conversion devices such as fuel-cells where H2 gas reacts with O2 from the air to produce electricity, two critical issues challenges still need to be met.
First, H2 needs to be purified in order to prevent poisoning of fuel-cell electrodes by gas impurities and, second, new catalysts need to be developed for fuel-cells that have replace expensive Pt with other combination of metals without compromising catalytic activity. Dense metal alloy membranes are a viable solution for H2 purification. Metallic alloys can be produced conformably via flow casting of molten alloy or by electrodeposition. One can envision such conformal membranes continuously lining the inner walls of syngas pipelines (that are porous), and allowing hydrogen to separate from syngas mixture (CO2, CO2, H2 and other gases). This project will investigate experimentally the synthesis and application of metal membranes that are suitable for hydrocarbon-derived syngas applications. Next, the controlled growth of surface layers by electrodeposition on such thin films will be used to produce high activity catalysts using inexpensive metals for immediate applications in fuel cells.
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C.9
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Jean-Luc
Bredas, CHEM
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Computational Modeling of the Electronic Structure of Organic Semiconductors for Solid-State Lighting and Solar Cells
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Organic semiconductors become increasingly used as the active elements in new generations of semiconductor devices such as light-emitting diodes (for displays and solid-state lighting), solar cells, or
field-effect transistors. The design of new organic semiconductors is a key component in the quest for devices that are more efficient and help in conserving energy or in generating clean, renewable power. The
goal of this project is to compute and compare the electronic structure of novel organic materials in view of their incorporation in devices. The project will consist of using a variety of quantum-chemical
computational methods to describe the electronic, optical, and/or transport properties of organic semiconductors based on pi-conjugated oligomers or polymers. The computational work will be carried out in
collaboration with experimentalists and device engineers.
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D. INTERNATIONAL SITE PROJECTS
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Project
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Faculty Mentor
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Project Title
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Project Abstract
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D-1
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Vladmir Tsukruk, MSE,
University of Bayreuth, Germany
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Responsive bio-and nano-materials
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The project will focus on design and fabrication of highly compliant and swellable hydrogel nanomaterials with which are responsive to external stimuli. The polymer matrix will be designed to be responsible
to changes in heat or chemical potential and inorganic nanoparticles (noble metal quantum dots, or titania) with characteristic optical signature will be embedded to facilitate macroscopic visible response to
local stimuli. The project will be conducted at the University of Bayreuth, which is located in Bavarian Region of Germany with a graduate student from Tsukruk’s group.
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D-2
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Naresh Thadhani
MSE &
Bill Proud, Cambridge, England
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Fragmentation and Dispersion of Reactive Metal Systems
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Intermetallic-forming powder mixtures provide a new class of reactive metal system. Understanding of the fragmentation and dispersion mechanisms is essential for control of reaction initiation and design of
advanced energetic materials. In this project exploding cylinder experiments will be performed on various reactive metals systems. The deformation and fragmentation responses will be monitored in real time using
high-speed camera and velocity interferometry, and correlated with continuum and discrete particle simulations.
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School of Materials Science and Engineering
 The SURF/IREP 2010 program is hosted by the School of Materials Science and Engineering (MSE), a division of the College of Engineering at Georgia Tech. MSE at Georgia Tech
is one of the strongest materials program in the world with 43 thesis sponsoring faculty. Its mission is to provide a broad education in materials science and engineering to meet the
needs of industry, academia, and government; to conduct interdisciplinary research that creates tomorrow’s materials; and to lead the international community in defining this
expanding discipline for the 21st century. Faculty research in MSE is at the leading edge of defining tomorrow’s world, and is focused in areas of advanced structural materials;
biological and soft materials; nanomaterials; electronic, magnetic, semi-conducting, photonic and opto-electronic materials; sustainable energy materials; and design and computational prediction of materials.
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Georgia Institute of Technology
 The Georgia Institute of Technology has an established tradition of excellence in technological education and research. It is one of the world’s premier technology-oriented
universities, boasting a superb faculty of world-class teachers, researchers, and consultants. It is well known for high academic standards and it ranks among the top U.S.
research universities with a clear vision for leadership in providing the highest quality of technological education.
Students cite the interactive learning atmosphere at
Georgia Tech as one of the rewards of attending the Institute. Through hands-on learning experiences such as labs, field studies, and team projects, Tech students are prepared for
the real world. As the modern research university continues to evolve, Georgia Tech is dedicated to building our reputation, maintain our value, and enhancing the rewards
available to our students and alumni in order to stay three steps ahead of the status quo. Equipped with the extremely
rich resources of an outstanding student body and faculty, strong partnerships with business, industry, and government, and
support from alumni and friends, Georgia Tech is poised to fulfill its goals and objectives as well as meet and exceed the challenges of the new century.
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Atlanta, Georgia
 Atlanta is an integral and exciting aspect of Georgia Tech educational experience.
The state's capital and home to more than three million residents, Atlanta is one of the Southeast's most vibrant, progressive, and dynamic cities. Business
opportunities abound as more than 730 of the Fortune 1,000 companies have representative offices in Atlanta, including the national headquarters of the Coca-Cola Company, CNN, Delta Air Lines, Home Depot, and UPS.
Home to 37 other universities, colleges, junior colleges, and seminaries, Atlanta has much to offer students. From its mild climate ensuring year-round outdoor
activities to the hundreds of restaurants, dance, clubs, sport clubs, and cultural activities to the many professional sports teams, students rarely lack inspiration for
leisure activities. In addition, nearby lakes, mountains, and beaches offer water sports, camping, rock climbing, and snow skiiing.
If you are interested in additional information about Atlanta, please check the links below.
Atlanta Attraction Links
- Atlanta Braves Baseball/Turner Field
Home to the 2000 MLB All-Star game, Braves tickets can be ordered by
phone and charged to MasterCard, Visa, Discover, or American Express. Simply call the TicketMaster Charge Line at
404-249-6400 or 1-800-326-4000.
- Atlanta Hawks Basketball
For tickets call (404) 249-6400 or 1-800-326-4000.
- Atlanta Thrashers Hockey
Ticket information can be requested through the webpage or by calling (404) 584-PUCK.
- Atlanta Botanical Garden
Tropical, desert and endangered plants from around the world. Piedmont Avenue at The Prado, (404) 876-5859.
- Atlanta History Center
Explore Atlanta history from the Civil War to civil rights in award-winning exhibitions. 130 West Paces Ferry Road, (404) 814-4000.
- Callaway Gardens
Callaway Gardens located in Pine Mountain, Georgia is a stunning 13,000-acre resort and gardens offering the perfect
setting for a memorable summer family vacation, quick getaway, social or corporate event, or day trip. A variety of special
events fills the calendar all year long so there's always plenty to do, especially in the summer. From Masters Water Ski &
Wakeboard Tournament on Memorial Day Weekend to the Sky High Hot Air Balloon Festival on Labor Day Weekend, you
can have a splashing good time in and out of the water at Robin Lake Beach. Join us for a relaxing and exhilarating summer with exciting adventures designed to make your vacation unforgettable!
- Carter Presidential Center
The Carter Center is located in a 35-acre park approximately two miles east of downtown Atlanta. Four circular
interconnected pavilions house offices for the former president and first lady and most of the Center's program staff. The
complex includes the nondenominational Cecil B. Day Chapel, other conference facilities, and staff offices. The Center also
owns the nearby Kirbo Building and leases other office space from the City of Atlanta for The Atlanta Project and The
America Project. The Jimmy Carter Library and Museum, which adjoins The Carter Center, is owned and operated by the
National Archives and Records Administration of the federal government. The Center and Library are known collectively as The Carter Presidential Center. One Copenhill, Atlanta, GA 30307, (404) 420-5111.
- Centennial Olympic Park
The 21-acre Centennial Olympic Park was developed to serve as the world's gathering place during the Centennial
Olympic Games in 1996. The park has become a civic symbol and community focal point as well as a catalyst for new development in the downtown area. 285 International Boulevard,
N.W., Atlanta, Georgia 30313.
- CNN Center
Tour the global headquarters of Turner Broadcasting System and visit the eateries and specialty stores. One CNN Center, (404) 827-2491, Tour Information (404) 827-2300.
- Fernbank
150-acre environmental/education complex which includes a major museum of Natural History, a Science Center,
Planetarium & Observatory, and the Fernbank Forest. 767 Clifton Road NE, (404) 378-0127.
- Fox Theater
This 1929 Moorish/Egyptian/Art Deco fantasy hosts a wide range of live performances and year-round tours. 660 Peachtree Street NE, (404) 881-2100.
- Georgia Aquarium
Georgia Aquarium is one of the World's Largest Aquariums. With 8 million gallons of fresh and marine water, and more
than 100,000 animals representing 500 species from around the globe, you're sure to see things you've never seen before!
- Georgia Dome
The Georgia Dome is the largest cable-supported domed stadium in the world. Located in the heart of Atlanta, the Dome is
the home venue for the National Football League's Atlanta Falcons, has been named to host Super Bowl XXXIV in 2000,
and was host to the gymnastics, basketball and the finals of team handball during the 1996 Centennial Olympic Games and Super Bowl XXVIII. One Georgia Dome Drive, Atlanta, Georgia 30313.
- Georgia World Congress Center
The Georgia World Congress Center, located in the heart of downtown Atlanta, is one of the largest facilities in the United
States and hosts a myriad of conventions, consumer/trade shows and corporate events each year. The multi-purpose
facility expanded its international scope during the1996 Centennial Olympic Games, when it hosted six sporting events and
served as the International Broadcast Center. The GWCC encompasses 2.5 million square feet, earning the title of second largest convention center in the nation. 285 International Boulevard, N.W., Atlanta, Georgia 30313.
- High Museum of Art
This Atlanta landmark houses a superb collection of European, American, African, contemporary and decorative art as well
as an array of special exhibitions. 1280 Peachtree (at 16th), Atlanta, Georgia. Take MARTA to the Arts Center Station,
(404)733-HIGH.
- Imagine It! The Children's Museum of Atlanta
The mission of Imagine It! The Children's Museum of Atlanta is to create environments and activities where young children
experience the power of imagination and the pure delight of learning with each other and with grown-ups.
- Martin Luther King Center
The Martin Luther King, Jr. Center for Nonviolent Social Change is dedicated to carrying forward the legacy and work of Dr.
Martin Luther King, Jr. through research, education and training in the principles, philosophy and methods of nonviolence.
- Margaret Mitchell House and Visitors Center
Exhibits retell the story of her life, book and the movie and their profound impact on Atlanta and the South. Corner of 10th and Peachtree Streets, (404) 249-7012.
- Piedmont Park
In the heart of Midtown, Atlanta's most loved park, Piedmont Park has hosted many of the events that have helped shape
Atlanta. Nearly 3,000,000 people a year visit Piedmont Park, making it one of the most heavily used parks in the southeastern United States.
- Six Flags Over Georgia
Atlanta's home of the fastest thrill rides around, Park Phone Number 770-739-3400.
- Stone Mountain Park
Georgia's Stone Mountain is a masterpiece of nature that amazes millions of guests from around the world. The giant
granite rock, the magnificent Confederate Memorial Carving and the surrounding 3200-acre park are results of natural and historical events. P.O. Box 778, Stone Mountain, Georgia 30086, (770) 498-5690.
- Underground Atlanta
Underground Atlanta is a redeveloped downtown retail, restaurant, and entertainment complex at the site of the former
Underground Atlanta. Opened on June 15, 1989, Underground Atlanta covers six city blocks with a gross feasible area of 220,000 square feet, with 126 operating shops, services, and eating establishments.
- Woodruff Arts Center
The Woodruff Arts Center is dedicated to excellence in the performing and visual arts. As home of the Alliance Theater
Company, Atlanta College of Art, Atlanta Symphony Orchestra, and the High Museum of Art, the Woodruff Arts Center offers
its patrons a unique, multi-faceted experience of many distinctive arts institutions on a single campus. Woodruff Arts Center (WAC) Box Office: (404)733-5000.
- The World of Coca-Cola
The story of Coca-Cola is told through fascinating exhibits, classic radio & TV advertisements, and more. Located at 121 Baker Street, Atlanta, GA 30313, (404) 676-5151.
- White Water and American Adventures
White Water and American Adventures are located just north of Atlanta, at Exit 113 off I-75 (follow the signs off the exit).
Recognized as the most scenic water theme park in the country, and one of the top five in the nation, White Water features
attractions ranging from relaxing floats to high thrills, something for EVERYONE in the family! 1(800) 928-WAVE or (770)
424-WAVE. American Adventures, located right next door to White Water, is Georgia's only amusement park created
especially for families with kids up to the age of 15. 250 Cobb Parkway North, Marietta 30062-3503, (770) 424-9283.
- Zoo Atlanta
Named one of "America's Favorite Zoos," Zoo Atlanta began a multi-million-dollar habitat redevelopment in 1985 to provide
zoo animals with naturalistic environments simulating their native homes. Complete are the Ford African Rain Forest,
Monkeys of Makokou, Sanaga Aviary, Masai Mara, Mzima Springs, Flamingo Plaza, Orangutans of Ketambe and the
Sumatran Tiger Forest. Other current exhibits include an extensive reptile collection, bird collection, red pandas, and the Publix Petting Zoo. 800 Cherokee Avenue, Historic Grant Park, (404) 624-5600.
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For more information, contact SURF Coordinators:
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