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[email protected] 301.975.4105 Description Quantum networks rely on entangled photons to distribute quantum information across the network. In our group, we study these photon sources as well as ways to
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a carbon footprint, this technology permits the co-sintering of ceramics with metals and polymers, opening new opportunities for processing devices and components. Another novel method is ultrafast
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effort must be launched to develop the fundamental structure-property and processing-property relations that will enable these materials to provide the necessary performance in the wide spectrum of
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for the high-throughput simulation of adsorption isotherms in nanoporous solids. References Cockayne E, Wong-Ng W, Chen YS, Culp JT, Allen AJ: Density Functional Theory Study of the Structure of the
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Nader [email protected] 303.497.3746 Description Our group is world experts on developing photonic integrated circuits based on group III-V semiconductors on insulator (SiO2) architectures. Applications
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detection. Recent results from our group have shown that these structures are almost purely radiatively broadened at 9 K. We are soliciting proposals to extend this experimental method to investigate multi
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highly selective chemical separations. Our group is working on a dual-track project to expand this class of materials, and the successful candidate will contribute to either the computational
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study the interfacial properties of the filler particle-polymer interface that is critical for their enhanced performance. This interphase is also highly susceptible to enhanced degradation through the
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built as the ultimate imaging testbed for the quantitative optical measurement of nanospheres and sub-20 nm wide patterned features. Our working group supports US Semiconductor Manufacturing in
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. Briggman [email protected] 303.497.7287 Description Nonlinear optical techniques, such as vibrationally-resonant sum frequency spectroscopy (VR-SFS), are being increasingly applied to the study of