M
Matthew Sheldon
Researcher at Texas A&M University
Publications - 52
Citations - 1908
Matthew Sheldon is an academic researcher from Texas A&M University. The author has contributed to research in topics: Plasmon & Nanocrystal. The author has an hindex of 17, co-authored 46 publications receiving 1483 citations. Previous affiliations of Matthew Sheldon include Veeco & Lawrence Berkeley National Laboratory.
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Exciton-to-Dopant Energy Transfer in Mn-Doped Cesium Lead Halide Perovskite Nanocrystals
TL;DR: Observations indicate that CsPbX3 nanocrystals, possessing many superior optical and electronic characteristics, can be utilized as a new platform for magnetically doped quantum dots expanding the range of optical, electronic, and magnetic functionality.
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Plasmoelectric potentials in metal nanostructures
TL;DR: A method for achieving electric potential that uses an all-metal geometry based on the plasmon resonance in metal nanostructures to induce electric potentials induced in gold nanospheres by optical irradiation is developed.
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Silicon-Based Plasmonics for On-Chip Photonics
TL;DR: Si-based plasmonics have the potential to not only reduce the size of photonic components to deeply subwavelength scales, but also to enhance the emission, detection, and manipulation of optical signals in Si.
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Enhanced semiconductor nanocrystal conductance via solution grown contacts.
TL;DR: In this article, a 100,000-fold increase in the conductance of individual CdSe nanorods was reported when they were electrically contacted via direct solution phase growth of Au tips on the nanorod ends.
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Self-Assembled Epitaxial Au-Oxide Vertically Aligned Nanocomposites for Nanoscale Metamaterials.
Leigang Li,Liuyang Sun,Juan Sebastian Gomez-Diaz,Nicki Hogan,Ping Lu,Fauzia Khatkhatay,Wenrui Zhang,Jie Jian,Jijie Huang,Qing Su,Meng Fan,Clement Jacob,Jin Li,Xinghang Zhang,Quanxi Jia,Matthew Sheldon,Andrea Alù,Xiaoqin Li,Haiyan Wang +18 more
TL;DR: This work demonstrates the one-step direct growth of self-assembled epitaxial metal-oxide nanocomposites as a drastically different approach to fabricating large-area nanostructured metamaterials and predicts exotic properties, such as zero permittivity responses and topological transitions.