David A. Porras Fernandez Data-verified
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Researcher
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Research Areas
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Biography and Research Information
OverviewAI-generated summary
David A. Porras Fernandez conducts research focused on power electronics, specifically investigating high-frequency effects on magnetic components and converter performance. His work includes the analysis of current resonances caused by parasitic capacitances in medium-voltage, medium-frequency transformers, and the comparison of core losses in different high-frequency magnetic materials. Porras Fernandez also explores converter design and optimization, with publications on algorithms for dual-active bridge converters and the development of non-dissipative regenerative snubbers for DC-DC Ćuk converters. His research extends to the optimization of current sensors, such as Rogowski coils.
He has collaborated with researchers at the University of Arkansas at Fayetteville, including Juan Carlos Balda, Roderick A. Gomez Jimenez, and Ahmed Rahouma. Porras Fernandez's scholarly output includes several publications in recent years, with a total citation count of 16 and an h-index of 3.
Metrics
- h-index: 3
- Publications: 7
- Citations: 27
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 Hybrid Si/SiC MV Power Conditioning System for Ultra-Fast Electric Vehicle Charging Stations (2023)
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A Three-Phase Isolated Building Block for High-Power Medium-Voltage Grid Applications (2023)
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Optimal Medium-Voltage Cascaded H-Bridge Converters for High-Power Distribution System Applications (2023)
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Non-Dissipative Regenerative Snubber for Isolated DC-DC Cuk Converter (2023)
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Three Phase Dual Active Bridges with Integrated Series Inductance using 10-kV SiC MOSFETs for Medium-Voltage Grid Applications (2023)
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Comparison of High-Frequency Ferrite and Nanocrystalline Core Losses Using Identical Geometries (2022)
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Optimization Design Algorithm for Dual-Active Bridge Converters Using Parallel Power Modules (2022)
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Multi-objective Design Optimization for Current Sensor Rogowski Coil (2022)
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Analysis of Current Resonances due to Winding Parasitic Capacitances in Medium-Voltage Medium-Frequency Transformers (2022)
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Inductor and Transformer-Coupled Magnetic Structure for Zero-Ripple dc-dc Ćuk Converter (2021)
Collaboration Network
Top Collaborators
- Comparison of High-Frequency Ferrite and Nanocrystalline Core Losses Using Identical Geometries
- Optimization Design Algorithm for Dual-Active Bridge Converters Using Parallel Power Modules
- Non-Dissipative Regenerative Snubber for Isolated DC-DC Cuk Converter
- High-Frequency Effects on Magnetics and Converter Performance: Implications for Power Electronic Converter Design
- Optimization Design Algorithm for Dual-Active Bridge Converters Using Parallel Power Modules
- Non-Dissipative Regenerative Snubber for Isolated DC-DC Cuk Converter
- High-Frequency Effects on Magnetics and Converter Performance: Implications for Power Electronic Converter Design
- Optimization Design Algorithm for Dual-Active Bridge Converters Using Parallel Power Modules
- Non-Dissipative Regenerative Snubber for Isolated DC-DC Cuk Converter
- Multi-objective Design Optimization for Current Sensor Rogowski Coil
- Multi-objective Design Optimization for Current Sensor Rogowski Coil
- Multi-objective Design Optimization for Current Sensor Rogowski Coil
- Multi-objective Design Optimization for Current Sensor Rogowski Coil
- Multi-objective Design Optimization for Current Sensor Rogowski Coil
- Multi-objective Design Optimization for Current Sensor Rogowski Coil
- Multi-objective Design Optimization for Current Sensor Rogowski Coil
- Comparison of High-Frequency Ferrite and Nanocrystalline Core Losses Using Identical Geometries
- Comparison of High-Frequency Ferrite and Nanocrystalline Core Losses Using Identical Geometries
- Comparison of High-Frequency Ferrite and Nanocrystalline Core Losses Using Identical Geometries
- High-Frequency Effects on Magnetics and Converter Performance: Implications for Power Electronic Converter Design
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