Spelling suggestions: "subject:"quantumdots"" "subject:"quantumdot""
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Synthesis of Zinc Telluride/Cadmium Selenide/Cadmium Sulfide Quantum Dot Heterostructures for use in Biological ApplicationsDiederich, Geoffrey M. 18 July 2012 (has links)
No description available.
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Femtosecond Time-resolved Studies of Quantum Dots-Based Energy TransferDayal, Smita 03 April 2008 (has links)
No description available.
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A Novel Synthesis and Characterization of Copper Chloride Nanocrystals in a Sodium Chloride MatrixZell, Elizabeth T. January 2013 (has links)
No description available.
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Suppressed Carrier Scattering in Cadmium Sulfide-Encapsulated Lead Sulfide Nanocrystal FilmsRijal, Upendra 08 August 2014 (has links)
No description available.
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A PHOTOLUMINESCENCE SCALING STUDY OF CdSe/ZnSe SELF ASSEMBLED QUANTUM DOTSJONES, ROBERT A. 03 December 2001 (has links)
No description available.
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Electrical Transport Measurement of Niobium Thin Superconducting Film Above An Array of Magnetic Quantum DotsSONG, YONG 25 August 2008 (has links)
No description available.
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Confined States in GaAs-based Semiconducting NanowiresShi, Teng 03 June 2016 (has links)
No description available.
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Design and Evaluation of a Fiber Optic Shape Tracker for Use as a Navigational Aid in Endovascular Guidewires and CathetersRinehart, Benjamin Stewart 03 June 2016 (has links)
No description available.
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Metal Enhanced Fluorescence in CdSe Quantum Dots by Gold Thin FilmsDesai, Darshan B. 03 October 2011 (has links)
No description available.
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Solution-based analysis of individual perovskite quantum dots and coupled quantum dot dimers using nanoplasmonic tweezersZhang, Hao 16 September 2022 (has links)
Cesium lead halide perovskite quantum dots (PQDs) provide an extraordinary solution-based method to fabricate high-performance solar cells, luminescent lightemitting devices, highly coherent single-photon quantum sources, and studying quantum mechanisms for quantum computing technologies. In these applications, characterizing heterogeneity and observing coupling between dots is critical. In this thesis, we use double-nanohole (DNH) optical tweezers to realize single trapping for PQDs in solution. We can estimate the size of an individual dot by studying thermal fluctuations and correlate it to emission energy shifts from quantum confinement. Based on single trapping experiment, we also use the same setup to capture a second dot by using the DNH tweezer and observe a systematic red-shift of 1.1 ± 0.6 meV in the emission wavelength upon multiple repeated measurements. Theoretical analysis shows that the experiment results are consistent with Förster resonant energy transfer (FRET), which has been proposed to obtain entanglement between colloidal quantum dots for quantum information applications. The value of the FRET is quite large when compared with the confined quantum dots and it is exciting for FRET to generate entanglement for quantum information processing applications (e.g. quantum logic gates). In the thesis, we have proved that our method allows for in-situ sizing of individual PQDs for the first time, which is relevant for improving the growth process and does not require expensive techniques. It also enables future work to search and select two dots that are nominally identical. Optical trapping with DNHs fabricated using colloidal lithography can be used to control PQD growth in-situ and enables further studies of the coupling of quantum dots at a small distance with quantum information applications. / Graduate
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