World's Best Scientists 2026 revealed!

D-Index & Metrics

Electronics and Electrical Engineering

D-Index
36
Citations
7790
World Ranking
5256
National Ranking
1812

Overview

Gregory L. Snider is affiliated with the University of Notre Dame in the United States. Their research spans several fields including Physics and Astronomy, Engineering, and Computer Science, with notable contributions in Atomic and Molecular Physics, and Optics, Electrical and Electronic Engineering, and Computational Theory and Mathematics.

Snider's primary topics of research focus on quantum and electron transport phenomena. Their work extensively covers Quantum-Dot Cellular Automata and advancements in semiconductor devices and circuit design. Other significant areas of study include mechanical and optical resonators, quantum computing algorithms and architecture, advanced memory and neural computing, and topological materials and phenomena.

The scientist has published in various peer-reviewed journals and conference venues. Frequent publication venues include:

  • Scientific Reports
  • Journal of Vacuum Science & Technology B Nanotechnology and Microelectronics Materials Processing Measurement and Phenomena
  • IEEE Transactions on Nanotechnology
  • IEEE Sensors Letters
  • Applied Sciences

Recent papers authored or coauthored by Snider include:

  • "Tunable, Hardware-Based Quantum Random Number Generation Using Coupled Quantum Dots" (2020, IEEE Transactions on Nanotechnology)
  • "Dipole Charge Detection: Toward the Readout of Bistable Charge States in Molecular QCA" (2023, IEEE Sensors Letters)
  • "Nano-photoluminescence of natural anyon molecules and topological quantum computation" (2021, Scientific Reports)
  • "Radio Frequency Reflectometry of Single-Electron Box Arrays for Nanoscale Voltage Sensing Applications" (2020, Applied Sciences)
  • "Gate reflectometry of single-electron box arrays using calibrated low temperature matching networks" (2022, Scientific Reports)

Throughout their career, Snider has collaborated frequently with several coauthors including:

  • Alexei O. Orlov
  • Jonathan Chisum
  • Mohammad Istiaque Rahaman
  • Gergo P. Szakmany
  • Thomas A. Zirkle

These collaborations have supported research advancing quantum-dot cellular automata and nanoscale sensor design as well as theoretical and practical aspects of quantum and electron transport.

Best Publications

  • Realization of a Functional Cell for Quantum-Dot Cellular Automata

    A. O. Orlov;I. Amlani;G. H. Bernstein;C. S. Lent

  • Digital logic gate using quantum-Dot cellular automata

    Islamshah Amlani;Alexei O. Orlov;Geza Toth;Geza Toth;Gary H. Bernstein

  • Electron transport in AlGaN–GaN heterostructures grown on 6H–SiC substrates

    R. Gaska;J. W. Yang;A. Osinsky;Q. Chen

  • InAlN/AlN/GaN HEMTs With Regrown Ohmic Contacts and $f_{T}$ of 370 GHz

    Yuanzheng Yue;Zongyang Hu;Jia Guo;B. Sensale-Rodriguez

  • Molecular quantum cellular automata cells. Electric field driven switching of a silicon surface bound array of vertically oriented two-dot molecular quantum cellular automata.

    Hua Qi;Sharad Sharma;Zhaohui Li;Gregory L. Snider

  • Electron mobility in modulation-doped AlGaN-GaN heterostructures

    R. Gaska;M. S. Shur;A. D. Bykhovski;A. O. Orlov

  • Operation of a quantum-dot cellular automata (QCA) shift register and analysis of errors

    R.K. Kummamuru;A.O. Orlov;R. Ramasubramaniam;C.S. Lent

  • Experimental demonstration of a leadless quantum-dot cellular automata cell

    Islamshah Amlani;Alexei O. Orlov;Ravi K. Kummamuru;Gary H. Bernstein

  • Quantum-Dot Cellular Automata at a Molecular Scale

    Marya Lieberman;Sudha Chellamma;Bindhu Varughese;Yuliang Wang

  • Electron states in mesa‐etched one‐dimensional quantum well wires

    G. L. Snider;I.‐H. Tan;E. L. Hu

  • Quantum-dot cellular automata: Review and recent experiments (invited)

    G. L. Snider;A. O. Orlov;I. Amlani;X. Zuo

  • Experimental demonstration of clocked single-electron switching in quantum-dot cellular automata

    Alexei O. Orlov;Islamshah Amlani;Ravi K. Kummamuru;Rajagopal Ramasubramaniam

  • Quantum-dot cellular automata : computing with coupled quantum dots

    Wolfgang Porod;Craigs Lent;Gary H. Bernstein;Alexei O. Orlov

  • Gate-Recessed Enhancement-Mode InAlN/AlN/GaN HEMTs With 1.9-A/mm Drain Current Density and 800-mS/mm Transconductance

    Ronghua Wang;P Saunier;Xiu Xing;Chuanxin Lian

  • Demonstration of a six-dot quantum cellular automata system

    Islamshah Amlani;Alexei O. Orlov;Gregory L. Snider;Craig S. Lent

  • Quantum-Dot Cellular Automata:Line and Majority Logic Gate

    Gregory L. Snider;Alexei O. Orlov;Islamshah Amlani;Gary H. Bernstein

  • Single particle transport in two-dimensional heterojunction interlayer tunneling field effect transistor

    Mingda (Oscar) Li;David Esseni;Gregory Snider;Debdeep Jena

  • Power gain in a quantum-dot cellular automata latch

    Ravi K. Kummamuru;John Timler;Geza Toth;Craig S. Lent

  • 210-GHz InAlN/GaN HEMTs With Dielectric-Free Passivation

    Ronghua Wang;Guowang Li;O. Laboutin;Yu Cao

  • Ultrascaled InAlN/GaN High Electron Mobility Transistors with Cutoff Frequency of 400 GHz

    Yuanzheng Yue;Zongyang Hu;Jia Guo;Berardi Sensale-Rodriguez

  • Quantum-dot cellular automata

    G. L. Snider;A. O. Orlov;I. Amlani;X. Zuo

Frequent Co-Authors

Alexei O. Orlov
Alexei O. Orlov University of Notre Dame
Gary H. Bernstein
Gary H. Bernstein University of Notre Dame
Debdeep Jena
Debdeep Jena Cornell University
Patrick Fay
Patrick Fay University of Notre Dame
Wolfgang Porod
Wolfgang Porod University of Notre Dame
Huili Grace Xing
Huili Grace Xing Cornell University
Evelyn L. Hu
Evelyn L. Hu Harvard University
Yu Cao
Yu Cao Zhejiang University
Jacek K. Furdyna
Jacek K. Furdyna University of Notre Dame
Michael Shur
Michael Shur Rensselaer Polytechnic Institute

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