people
Marc Baldo (MIT, Center Director). Baldo pioneered phosphorescent OLEDs - now standard for high efficiency solid state lighting. |
Alan Aspuru-Guzik (Harvard). Recently, Aspuru-Guzik pioneered the application of open quantum systems to understand energy transfer in natural and artificial antennas. |
Paul Barton (MIT). Barton is experienced in numerical analysis and software development for simulation, and mathematical modeling of engineered systems. |
Moungi Bawendi (MIT). Bawendi has pioneered the science and technology of colloidal semiconductor quantum dots and has led the spectroscopy of quantum dots at the ensemble and single quantum dot scale. |
Karl Berggren (MIT). Berggren has pioneered the combination of lithography and self assembly for the patterning of sub 10-nm features. |
Charles Black (BNL). Black pioneered nanometer-scale self assembly in lithography. |
Vladimir Bulović (MIT). Bulović and colleagues demonstrated the first electroluminescence from an exciton polariton and also pioneered QD-LEDs. |
Ken Crozier (Harvard). Crozier pioneered plasmonic antennas for use with lasers. |
Silvija Gradečak (MIT). Gradečak's Cathodoluminescence Scanning Transmission Electron Microscopy (CL-STEM) tool is presently unique within the US and offers a singular opportunity to correlate the structure and function of excitonic materials. |
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| Jing Kong (MIT). Kong is a leading expert in exciton engineering in these nanostructures. | Keith Nelson (MIT). Nelson pioneered the
development of fully phase coherent two dimensional Fourier transform spectroscopy —a key capability of our proposed center. |
Timothy Swager (MIT). Swager introduced exciton diffusion in electronic polymers to amplify fluorescence based chemical sensors. |
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| Robert Silbey (MIT). Among numerous contributions to physical chemistry, Silbey has worked recently on coherence in photosynthetic antennas. | Peter
Sutter (BNL). Sutter
has extensive experience in nanomaterials, microscopy and scanning probes. |
Troy Van Voorhis (MIT). Van Voorhis pioneered the use of constrained density functional theory (DFT) for the description of electron transfer and exciton formation in OLEDs. |
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