Soheil Nouri
This is a likely match — the affiliation was inferred from OpenAlex, ORCID, and web sources but has not been fully confirmed. Treat with appropriate caution.
Researcher
Also affiliated: University of Tabriz (2014); Iranshahr University (2024–2025); Shahroud University of Medical Sciences (2024–2025)
Faculty Researcher
Research Areas
Biomedical Subjects
Links
Biography and Research Information
OverviewAI-generated summary
Soheil Nouri's research focuses on the physics-based modeling of semiconductor devices, particularly millimeter-wave transistors. His work investigates the impact of various design parameters and physical phenomena on transistor performance and figures of merit. Recent publications explore the effects of pad layout variations, electrode configurations, and electromagnetic-wave propagation on millimeter-wave transistor characteristics. Nouri also studies the physics-based modeling and characterization of wide bandgap transistors, including GaN-HEMTs, and their application in systems like photovoltaic energy conversion. He has published 21 papers, with an h-index of 7 and 117 citations. Nouri collaborates with researchers Samir El‐Ghazaly and Amirreza Ghadimi Avval at the University of Arkansas at Fayetteville, sharing 13 and 9 publications respectively.
Metrics
- h-index: 7
- Publications: 21
- Citations: 123
Selected Publications
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Analysis of Distributed Effects in HRL’s GaN Technologies (2025)
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Exploring the Electrical Behavior of AlGaN HEMTs: a Parametric Analysis on the Barrier Layer Composition (2025)
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Physics Based Modeling of Multi-Finger GaN-HEMTs: Device Width Optimization (2025)
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A Review on the Modeling of Millimeter-Wave Transistors (2025)
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Physics-Based Modeling and Characterization of Wide GaN-HEMTs (2025)
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Investigating Thermal Effects and Mitigation Strategies in Multi-Finger GaN HEMTs (2024)
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Finger Width Effects on Performance of GaN HEMTs (2024)
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Effects of Electrodes Layout on Performance of Millimeter-Wave Transistors (2023)
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A Review of Physics-based Modeling of Millimeter-Wave Transistors (2022)
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Enhancing High-Frequency Performance of Millimeter-Wave Transistors by Optimizing Device Width (2022)
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Global Modeling of Millimeter-Wave Transistors: Analysis of Electromagnetic-Wave Propagation Effects (2022)
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Impact of Wave Propagations on Figures of Merit in Millimeter-Wave Transistors (2021)
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High Step-up DC/DC Converter with Low Input Current Ripple and Low Voltage Stress on Semiconductors (2021)
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Effects of Pad Layout Variations on the Cut-off Frequency of Millimeter-Wave Transistors (2021)
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Effects of Electromagnetic Wave Propagations in Large-Signal Analysis of Millimeter-Wave Transistors (2021)
Collaboration Network
Top Collaborators
- Comprehensive Physics-Based Model for Millimeterwave Transistors
- Impact of Wave Propagations on Figures of Merit in Millimeter-Wave Transistors
- Global Modeling of Millimeter-Wave Transistors: Analysis of Electromagnetic-Wave Propagation Effects
- Effects of Pad Layout Variations on the Cut-off Frequency of Millimeter-Wave Transistors
- Physics-Based Modeling and Characterization of Wide GaN-HEMTs
Showing 5 of 13 shared publications
- Impact of Wave Propagations on Figures of Merit in Millimeter-Wave Transistors
- Effects of Pad Layout Variations on the Cut-off Frequency of Millimeter-Wave Transistors
- Physics-Based Modeling and Characterization of Wide GaN-HEMTs
- Effects of Electromagnetic Wave Propagations in Large-Signal Analysis of Millimeter-Wave Transistors
- Enhancing High-Frequency Performance of Millimeter-Wave Transistors by Optimizing Device Width
Showing 5 of 9 shared publications
- A Non-isolated High Step-Up DC-DC Converter Recommended for Photovoltaic Systems
- High Step-up DC/DC Converter with Low Input Current Ripple and Low Voltage Stress on Semiconductors
- Physics Based Modeling of Multi-Finger GaN-HEMTs: Device Width Optimization
- Exploring the Electrical Behavior of AlGaN HEMTs: a Parametric Analysis on the Barrier Layer Composition
- A Non-isolated High Step-Up DC-DC Converter Recommended for Photovoltaic Systems
- A Non-isolated High Step-Up DC-DC Converter Recommended for Photovoltaic Systems
- A Non-isolated High Step-Up DC-DC Converter Recommended for Photovoltaic Systems
- A Non-isolated High Step-Up DC-DC Converter Recommended for Photovoltaic Systems
- High Step-up DC/DC Converter with Low Input Current Ripple and Low Voltage Stress on Semiconductors
- High Step-up DC/DC Converter with Low Input Current Ripple and Low Voltage Stress on Semiconductors
- Finger Width Effects on Performance of GaN HEMTs
- Investigating Thermal Effects and Mitigation Strategies in Multi-Finger GaN HEMTs
- Investigating Thermal Effects and Mitigation Strategies in Multi-Finger GaN HEMTs
- Analysis of Distributed Effects in HRL’s GaN Technologies
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