Ahmed H. Ismail
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 Arkansas System (2025); Arkansas Power Electronics International (2025–2026); Minia University (2014)
Faculty Researcher
Research Areas
Biography and Research Information
OverviewAI-generated summary
Ahmed H. Ismail's research focuses on the design and development of power electronic converters, particularly those utilizing silicon carbide (SiC) technology for high-density and high-power applications. His work investigates advanced converter topologies, such as interleaved multi-phase boost converters and modular DC-DC converters, often incorporating coupled inductors to enhance power density. Ismail has published research on SiC MOSFET-based building blocks for medium-voltage DC chargers and high-power converters employing all-SiC modules. He has also explored empirical pre-screen methods for paralleling medium-voltage SiC MOSFETs. His research collaborations at the University of Arkansas at Fayetteville include work with Zhuxuan Ma, Baher Abu Sba, Muhammad Fasih Uddin, and Yue Zhao.
Metrics
- h-index: 3
- Publications: 11
- Citations: 40
Selected Publications
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Comparative Study of SiC MOSFETs and Si IGBTs for A Parallel Half-Bridge Modules Based Bidirectional SSCB (2026)
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Design and Optimization to Advance Silicon Carbide Modules for Medium Voltage High Power Applications (2026)Journal of the Arkansas Academy of Science OpenAlex
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Evaluation and Design of Bidirectional SSCBs Based on Half-Bridge SiC Modules for MVDC Protection (2026)
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Empirical Pre-Screen Method for Paralleling Operation of Medium-Voltage Silicon Carbide MOSFETs (2026)
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Performance Evaluation of High Power Hybrid Active Neutral Point Clamped Converters: Three-Phase Integrated Power Stage vs. Single-Phase Power-Electronic Building Block (2025)
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A High-Efficiency Bidirectional Solid-State Circuit Breaker Using Half-Bridge SiC MOSFET Modules for DC Grid Protection (2025)
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A High-Density Medium-Voltage Three-Level Interleaved DC/DC Converter for Off-Road Vehicles (2025)
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Optimization of Fully Integrated Double-Sided LCC with Reduced Stray Field (2025)
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A High-Density Modular DC–DC Converter Design With a Novel Planar Coupled Inductor (2025)
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A 3.3-kV All Silicon Carbide Module based Ultra-High-Density Building Block Concept for Multi-Megawatt Traction Applications (2023)
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High-Density High-Power Converter using 3.3-kV All-Silicon Carbide Modules (2023)
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An Interleaved Multi-Phase Boost Converter with Coupled Inductors for High Power Density (2022)
Collaboration Network
Top Collaborators
- A High-Density Modular DC–DC Converter Design With a Novel Planar Coupled Inductor
- A High-Efficiency Bidirectional Solid-State Circuit Breaker Using Half-Bridge SiC MOSFET Modules for DC Grid Protection
- Optimization of Fully Integrated Double-Sided LCC with Reduced Stray Field
- A High-Density Medium-Voltage Three-Level Interleaved DC/DC Converter for Off-Road Vehicles
- Performance Evaluation of High Power Hybrid Active Neutral Point Clamped Converters: Three-Phase Integrated Power Stage vs. Single-Phase Power-Electronic Building Block
Showing 5 of 7 shared publications
- High-Density High-Power Converter using 3.3-kV All-Silicon Carbide Modules
- An Interleaved Multi-Phase Boost Converter with Coupled Inductors for High Power Density
- A High-Density Modular DC–DC Converter Design With a Novel Planar Coupled Inductor
- A 3.3-kV All Silicon Carbide Module based Ultra-High-Density Building Block Concept for Multi-Megawatt Traction Applications
- Optimization of Fully Integrated Double-Sided LCC with Reduced Stray Field
Showing 5 of 6 shared publications
- High-Density High-Power Converter using 3.3-kV All-Silicon Carbide Modules
- An Interleaved Multi-Phase Boost Converter with Coupled Inductors for High Power Density
- A 3.3-kV All Silicon Carbide Module based Ultra-High-Density Building Block Concept for Multi-Megawatt Traction Applications
- Optimization of Fully Integrated Double-Sided LCC with Reduced Stray Field
- Performance Evaluation of High Power Hybrid Active Neutral Point Clamped Converters: Three-Phase Integrated Power Stage vs. Single-Phase Power-Electronic Building Block
- High-Density High-Power Converter using 3.3-kV All-Silicon Carbide Modules
- An Interleaved Multi-Phase Boost Converter with Coupled Inductors for High Power Density
- A 3.3-kV All Silicon Carbide Module based Ultra-High-Density Building Block Concept for Multi-Megawatt Traction Applications
- A High-Density Modular DC–DC Converter Design With a Novel Planar Coupled Inductor
- Optimization of Fully Integrated Double-Sided LCC with Reduced Stray Field
- A High-Density Medium-Voltage Three-Level Interleaved DC/DC Converter for Off-Road Vehicles
- A High-Density Modular DC–DC Converter Design With a Novel Planar Coupled Inductor
- Optimization of Fully Integrated Double-Sided LCC with Reduced Stray Field
- A High-Density Medium-Voltage Three-Level Interleaved DC/DC Converter for Off-Road Vehicles
- High-Density High-Power Converter using 3.3-kV All-Silicon Carbide Modules
- Empirical Pre-Screen Method for Paralleling Operation of Medium-Voltage Silicon Carbide MOSFETs
- A High-Efficiency Bidirectional Solid-State Circuit Breaker Using Half-Bridge SiC MOSFET Modules for DC Grid Protection
- Evaluation and Design of Bidirectional SSCBs Based on Half-Bridge SiC Modules for MVDC Protection
- A High-Efficiency Bidirectional Solid-State Circuit Breaker Using Half-Bridge SiC MOSFET Modules for DC Grid Protection
- Evaluation and Design of Bidirectional SSCBs Based on Half-Bridge SiC Modules for MVDC Protection
- A High-Efficiency Bidirectional Solid-State Circuit Breaker Using Half-Bridge SiC MOSFET Modules for DC Grid Protection
- Performance Evaluation of High Power Hybrid Active Neutral Point Clamped Converters: Three-Phase Integrated Power Stage vs. Single-Phase Power-Electronic Building Block
- High-Density High-Power Converter using 3.3-kV All-Silicon Carbide Modules
- High-Density High-Power Converter using 3.3-kV All-Silicon Carbide Modules
- High-Density High-Power Converter using 3.3-kV All-Silicon Carbide Modules
- A 3.3-kV All Silicon Carbide Module based Ultra-High-Density Building Block Concept for Multi-Megawatt Traction Applications
- Optimization of Fully Integrated Double-Sided LCC with Reduced Stray Field
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