Yang Zhang
Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.
Professor
Also affiliated: North University of China (2018); University of Shanghai for Science and Technology (2014); Xidian University (2024); City University of Hong Kong (2022); Chinese Academy of Sciences (2014); Italian Institute of Technology (2015); Guizhou Minzu University (2023); Institute of Semiconductors (2014); Arizona State University (2007–2020); Zhejiang University (2023)
Agricultural Economics and Agribusiness
Research Areas
Biomedical Subjects
Links
Biography and Research Information
OverviewAI-generated summary
Yang Zhang's research focuses on the optical, electrical, and thermal transport properties of micro- and nano-scale systems. His work involves developing nanoelectronic and photovoltaic devices with novel structures and materials, as well as creating new micro- and nano-fabrication techniques using both top-down and bottom-up strategies. Zhang earned a PhD in Microelectronics and Solid State Electronics from the Institute of Semiconductors of the Chinese Academy of Sciences, where his dissertation explored the application of electron-beam lithography for fabricating metallic air-bridges and silicon nanowire devices.
His recent publications include studies on the photoluminescence of quantum dots, the electron affinity of diamond surfaces, and the development of quantum sensing devices utilizing nitrogen-vacancy centers in diamond. He has also investigated methods to control carrier recombination in black silicon for high-performance solar cells. Zhang has an h-index of 11 with 22 publications and 368 citations. He collaborates with researchers at the University of Arkansas at Fayetteville and the University of Arkansas at Pine Bluff.
Metrics
- h-index: 11
- Publications: 22
- Citations: 369
Positions
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Professor 2020–presentJinan University Institute of Photonics Technology ORCID
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Professor publications 2018–2025University of Arkansas at Fayetteville Agricultural Economics and Agribusiness ORCID
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Visiting Assistant Professor 2019–2020University of Arkansas Institute for Nanoscience and Engineering ORCID
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Assistant Research Scientist 2018Arizona State University Electrical Engineering ORCID
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Postdoc 2016–2017University of Arkansas Electrical Engineering ORCID
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Postdoc 2015–2016University of Nebraska-Lincoln Mechanical & Materials Engineering ORCID
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Postdoc 2013–2015Italian Institute of Technology Nanostructures & Nanochemistry units ORCID
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Postdoc 2012–2013University of Wisconsin-Milwaukee Department of Mechanical Engineering ORCID
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Institute of Semiconductors 2008–2009ORCID
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Product Test Engineer & Lab coordinator 2008Qimonda R&D center ORCID
Selected Publications
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Study of electronic band alignment in SiGeSn/GeSn quantum well via internal photoemission effect (2025)
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Epoxy oxidized diamond (111)-(2 × 1) surface for nitrogen-vacancy based quantum sensors (2020)
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Photoluminescence of InAs/GaAs quantum dots under direct two-photon excitation (2020)
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Electron affinity of boron-terminated diamond (001) surfaces: a density functional theory study (2019)
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Harnessing Quantum Wave Nature of Individual Electrons for Single Photon Detection (2018)
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Detecting Single Photons Using Capacitive Coupling of Single Quantum Dots (2018)
Collaboration Network
Top Collaborators
- Detecting Single Photons Using Capacitive Coupling of Single Quantum Dots
- Harnessing Quantum Wave Nature of Individual Electrons for Single Photon Detection
- Study of electronic band alignment in SiGeSn/GeSn quantum well via internal photoemission effect
- Photoluminescence of InAs/GaAs quantum dots under direct two-photon excitation
- Harnessing Quantum Wave Nature of Individual Electrons for Single Photon Detection
- Study of electronic band alignment in SiGeSn/GeSn quantum well via internal photoemission effect
- Detecting Single Photons Using Capacitive Coupling of Single Quantum Dots
- Harnessing Quantum Wave Nature of Individual Electrons for Single Photon Detection
- Detecting Single Photons Using Capacitive Coupling of Single Quantum Dots
- Harnessing Quantum Wave Nature of Individual Electrons for Single Photon Detection
- Detecting Single Photons Using Capacitive Coupling of Single Quantum Dots
- Harnessing Quantum Wave Nature of Individual Electrons for Single Photon Detection
- Detecting Single Photons Using Capacitive Coupling of Single Quantum Dots
- Harnessing Quantum Wave Nature of Individual Electrons for Single Photon Detection
- Detecting Single Photons Using Capacitive Coupling of Single Quantum Dots
- Harnessing Quantum Wave Nature of Individual Electrons for Single Photon Detection
- Electron affinity of boron-terminated diamond (001) surfaces: a density functional theory study
- Epoxy oxidized diamond (111)-(2 × 1) surface for nitrogen-vacancy based quantum sensors
- Electron affinity of boron-terminated diamond (001) surfaces: a density functional theory study
- Epoxy oxidized diamond (111)-(2 × 1) surface for nitrogen-vacancy based quantum sensors
- Electron affinity of boron-terminated diamond (001) surfaces: a density functional theory study
- Epoxy oxidized diamond (111)-(2 × 1) surface for nitrogen-vacancy based quantum sensors
- Detecting Single Photons Using Capacitive Coupling of Single Quantum Dots
- Detecting Single Photons Using Capacitive Coupling of Single Quantum Dots
- Detecting Single Photons Using Capacitive Coupling of Single Quantum Dots
- Electron affinity of boron-terminated diamond (001) surfaces: a density functional theory study
- Electron affinity of boron-terminated diamond (001) surfaces: a density functional theory study
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