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Surname, First Name, Institution |
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Specializations |
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Branda, Neil |
Organic materials, molecular switches, photochromism and electrochromism, photodynamic therapy, optoelectronic devices. |
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Brolo, Alexandre |
Development of new surface spectroscopic methods, study of optical and spectroscopic properties of metallic nanostructures, development of new substrates for nano optics and plasmonics, study of nanostructured electrochemical interfaces, development of sensors based on surface plasmon resonance, and characterization of modified electrodes. |
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Chrostowski, Lukas |
Nanofabricated lasers including vertical cavity surface emitting lasers (VCSELs). High-speed modulation. Optical properties and device applications of photonic crystals, sub-wavelength gratings, perfect lensing in plasmons, quantum dots, optoelectronics, optical MEMS, bioMEMS. |
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Gordon, Reuven |
Nanoplasmonics and nanophotonics. Devices based on these properties. |
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Herring, Rodney |
Characterization of nanostructures using electron microscopy. Invented electron holography to characterize nanostructures used in electronic and magnetic devices. Electron holography to measure the properties of materials for the development of nanostructures. Bulk and surface plasmon characterization. |
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Karim, Karim |
Large-area thin-film electronics, applications, medical X-ray imaging, flexible display technology, and high-efficiency solar cells. Large area crystalline silicon technology for imaging, CMOS active-pixel sensors. Photon-counting circuits. |
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Kwok, Harry |
Semiconductor devices and applications. Organic material replacements for silicon. Development of tools for the study of decay in materials. The study and detection of malignant lymph nodes, and the development of various sensors. Polymer device modeling. |
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Lane, Pierre |
Biophotonics for early detection of disease using biomedical optics, confocal microscopy, spectroscopy, fluorescence, optical signal and image processing. Optical fiber communications, spatial light modulation. Digital signal and image processing. |
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Leach, Gary |
Surface and interface chemistry, nonlinear optical spectroscopy, scanning probe microscopy. New techniques of imaging using nanocrystals, and layered structures that involve nanocrystals. |
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MacAulay, Calum |
Cancer detection and treatment. Biomedical imaging, biomedical optics, tissue spectroscopy, quantitative cytology, quantitative histology, confocal microscopy, genomic analysis and its linkage to nanophotonics. Genetic links to cancer. Nanophotonic engineered contrast agents used to molecularly label target cells. |
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MacLachlan, Mark |
Synthetic approaches to nanostructures. Combining organic and inorganic chemistry to develop macrocycles, nanotubes, 3-D frameworks and extended structures that contain metals. |
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Marziali, Andre |
Nanosensor development for single-molecule DNA and protein sensing. Organic and synthetic nanopores for single-molecule detection, synthetic nanopore membranes for instrument applications. Synthetic nanopore and nanopore array fabrication. |
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Mooney, Patricia |
Defect studies in semiconductors. Origin and effects on the properties of materials and their atomic structure. |
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Morris, Paul |
Short-term protection of wood during harvesting, transport and storage, and long-term durability in service. Treatments to enhance decay, termite and UV resistance. Test methods for evaluating durability. |
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Murray, Daniel |
Acoustic phonons in nanostructures, inelastic light scattering from nanostructures. |
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Nojeh, Alireza |
Nanostructures (especially carbon nanotubes), controlled nanofabrication, electron emission phenomena, electron microscopy, modeling and simulation of nanoscale systems. |
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Paci, Irina |
New theoretical models and methods for understanding surface self-assembly and the dynamic properties of molecular materials. Coupled multi-scale simulations of materials. Assembly dynamics. |
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Papadopoulos, Chris |
Nanotechnology, nanoelectronics, carbon nanotubes, molecular devices, nanofabrication. Synthesis and properties. |
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Pulfrey, David |
Development of software tools for the design, analysis, and performance-prediction of nanoscale transistors and sensors. |
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Servati, Peyman |
One-dimensional semiconductor nanowires, ballistic gate-all-around NW transistors, NW and nanotube optoelectronic devices, morphology engineered NWs. Organic nanocomposite transistors and solar cells, flexible plastic electronics and displays, elastic circuits, electronic transport in NWs and nanostructured materials, inkjet printed electronics, nanostructured materials for bioelectrodes and biosensors, molecule-based magnetic materials, nanomagnetism, conducting polymers, molecular wires, synthetic chemistry. |
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Sinton, David |
Microfluidics, nanofluidics, optofluidics, surface effects, electrokinetics, fundamental numerical modeling, microfabrication. |
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Tang, Shuo |
Instrumentation development, optical tissue imaging, ultra fast lasers, biomedical applications. |
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Tiedje, Tom |
Epitaxial crystal growth using in-situ optical monitoring and kinetic Monte Carlo modeling. Growth of novel semiconductor materials (e.g. dilute nitrides of the form GaAsN and GaAsBi) and their electronic and optical properties. Fabrication of light-emitting devices (superluminescent sources for optical coherence tomography). Epitaxial oxide thin-film growth for laser applications. Coherent soft X-ray scattering as a method for determining structure of random systems. |
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van Veggel , Frank |
Luminescent nanoparticles for telecommunications, optical amplifiers, displays, and LEDs, Biomedical applications, optical biolabels and MRI applications. Nanoparticles based on Ln3+ ions, gallium nitride, or quantum dots. |
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Watkins, Simon |
Semiconductor crystal growth, nanostructures, semiconductor devices. |
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Young, Jeff |
Quantum electronics. Developing nano-optical devices and integrating them into semiconductor nanostructures. |
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