Ahmed Rahouma Data-verified
Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.
Graduate Research Assistant
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Research Areas
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Biography and Research Information
OverviewAI-generated summary
Ahmed Rahouma's research focuses on the design and application of medium-voltage power converters for distribution systems. His work includes the development of optimal medium-voltage cascaded H-bridge converters and static and dynamic characterization of SiC MOSFET modules. He has investigated medium-voltage front-end converters for grid-connected battery energy storage systems and explored designs for SiC flying capacitor converters suitable for 25-kV distribution systems.
Rahouma has also contributed to the construction and testing of a 13.8 kV, 750 kVA 3-phase current compensator. His recent publications address power conditioning systems for distribution applications and hybrid Si/SiC systems for ultra-fast electric vehicle charging stations. Additionally, he has explored ANPC-based building blocks for medium-voltage applications. His research is supported by collaborations with Juan Carlos Balda and Zhuxuan Ma at the University of Arkansas at Fayetteville.
Metrics
- h-index: 5
- Publications: 13
- Citations: 52
Selected Publications
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An ANPC-Based Building Block for Medium-Voltage Applications (2025)
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High-Frequency Effects on Magnetics and Converter Performance: Implications for Power Electronic Converter Design (2024)
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Selection of HV SiC MOSFET Modules for MV-CHB for Distribution System Applications (2023)
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A 4.16kV/750kVA MV Power Conditioning System for Distribution System Applications (2023)
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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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A Hybrid Si/SiC MV Power Conditioning System for Ultra-Fast Electric Vehicle Charging Stations (2023)
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Optimal Medium-Voltage Cascaded H-Bridge Converters for High-Power Distribution System Applications (2023)
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A Review of Medium-Voltage Front-End Converters for Grid-Connected Battery Energy Storage Systems (2022)
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Static and Dynamic Characterization of 3.3-kV SiC MOSFET Modules With and Without External Anti- Parallel SiC JBS Diode (2022)
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A Medium-Voltage SiC Flying Capacitor Converter Design for 25-kV Distribution Systems (2021)
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Construction and Testing of a 13.8 kV, 750 kVA 3-Phase Current Compensator Using Modular Switching Positions (2021)
Collaboration Network
Top Collaborators
- Optimal Medium-Voltage Cascaded H-Bridge Converters for High-Power Distribution System Applications
- Static and Dynamic Characterization of 3.3-kV SiC MOSFET Modules With and Without External Anti- Parallel SiC JBS Diode
- A Review of Medium-Voltage Front-End Converters for Grid-Connected Battery Energy Storage Systems
- A Medium-Voltage SiC Flying Capacitor Converter Design for 25-kV Distribution Systems
- Construction and Testing of a 13.8 kV, 750 kVA 3-Phase Current Compensator Using Modular Switching Positions
Showing 5 of 10 shared publications
- Optimal Medium-Voltage Cascaded H-Bridge Converters for High-Power Distribution System Applications
- Static and Dynamic Characterization of 3.3-kV SiC MOSFET Modules With and Without External Anti- Parallel SiC JBS Diode
- A Review of Medium-Voltage Front-End Converters for Grid-Connected Battery Energy Storage Systems
- A 4.16kV/750kVA MV Power Conditioning System for Distribution System Applications
- Selection of HV SiC MOSFET Modules for MV-CHB for Distribution System Applications
- Optimal Medium-Voltage Cascaded H-Bridge Converters for High-Power Distribution System Applications
- A Hybrid Si/SiC MV Power Conditioning System for Ultra-Fast Electric Vehicle Charging Stations
- A 4.16kV/750kVA MV Power Conditioning System for Distribution System Applications
- Selection of HV SiC MOSFET Modules for MV-CHB for Distribution System Applications
- An ANPC-Based Building Block for Medium-Voltage Applications
- A Hybrid Si/SiC MV Power Conditioning System for Ultra-Fast Electric Vehicle Charging Stations
- A 4.16kV/750kVA MV Power Conditioning System for Distribution System Applications
- A 3.3-kV All Silicon Carbide Module based Ultra-High-Density Building Block Concept for Multi-Megawatt Traction Applications
- An ANPC-Based Building Block for Medium-Voltage Applications
- Optimal Medium-Voltage Cascaded H-Bridge Converters for High-Power Distribution System Applications
- A Medium-Voltage SiC Flying Capacitor Converter Design for 25-kV Distribution Systems
- A Hybrid Si/SiC MV Power Conditioning System for Ultra-Fast Electric Vehicle Charging Stations
- A Hybrid Si/SiC MV Power Conditioning System for Ultra-Fast Electric Vehicle Charging Stations
- A 3.3-kV All Silicon Carbide Module based Ultra-High-Density Building Block Concept for Multi-Megawatt Traction Applications
- An ANPC-Based Building Block for Medium-Voltage Applications
- Construction and Testing of a 13.8 kV, 750 kVA 3-Phase Current Compensator Using Modular Switching Positions
- Selection of HV SiC MOSFET Modules for MV-CHB for Distribution System Applications
- A Hybrid Si/SiC MV Power Conditioning System for Ultra-Fast Electric Vehicle Charging Stations
- A 3.3-kV All Silicon Carbide Module based Ultra-High-Density Building Block Concept for Multi-Megawatt Traction Applications
- A 4.16kV/750kVA MV Power Conditioning System for Distribution System Applications
- An ANPC-Based Building Block for Medium-Voltage Applications
- Construction and Testing of a 13.8 kV, 750 kVA 3-Phase Current Compensator Using Modular Switching Positions
- Construction and Testing of a 13.8 kV, 750 kVA 3-Phase Current Compensator Using Modular Switching Positions
- Static and Dynamic Characterization of 3.3-kV SiC MOSFET Modules With and Without External Anti- Parallel SiC JBS Diode
- A Hybrid Si/SiC MV Power Conditioning System for Ultra-Fast Electric Vehicle Charging Stations
- A 3.3-kV All Silicon Carbide Module based Ultra-High-Density Building Block Concept for Multi-Megawatt Traction Applications
- A 4.16kV/750kVA MV Power Conditioning System for Distribution System Applications
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