Roderick A. Gomez Jimenez
Researcher
Unknown Researcher
Research Areas
Biography and Research Information
OverviewAI-generated summary
Roderick A. Gomez Jimenez's research centers on the design and optimization of power electronic converters and magnetic components for medium-voltage, medium-frequency applications. His work includes the analysis of current resonances stemming from winding parasitic capacitances in transformers and the development of nanocrystalline three-phase transformers for grid-connected systems. Jimenez has also investigated optimization algorithms for dual-active bridge converters utilizing parallel power modules and has designed gate drivers for high-voltage silicon carbide MOSFETs. His recent publications also address non-dissipative regenerative snubbers for isolated DC-DC Cuk converters and the impact of high-frequency effects on magnetics and converter performance. Jimenez collaborates with researchers including Juan Carlos Balda and David A. Porras Fernandez at the University of Arkansas at Fayetteville.
Metrics
- h-index: 3
- Publications: 6
- Citations: 31
Selected Publications
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High-Frequency Effects on Magnetics and Converter Performance: Implications for Power Electronic Converter Design (2024)
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Non-Dissipative Regenerative Snubber for Isolated DC-DC Cuk Converter (2023)
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Optimization Design Algorithm for Dual-Active Bridge Converters Using Parallel Power Modules (2022)
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Design Optimization and Experimental Validation of Gate Driver for 10 kV SiC MOSFET (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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Design of Nanocrystalline Medium-Voltage Medium-Frequency Three-Phase Transformers for Grid-Connected Applications (2021)
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Modeling and Characterization of 10-kV SiC MOSFET Modules for Medium-Voltage Distribution Systems (2020)
Collaboration Network
Top Collaborators
- Analysis of Current Resonances due to Winding Parasitic Capacitances in Medium-Voltage Medium-Frequency Transformers
- Design of Nanocrystalline Medium-Voltage Medium-Frequency Three-Phase Transformers for Grid-Connected Applications
- 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
- Design of Nanocrystalline Medium-Voltage Medium-Frequency Three-Phase Transformers for Grid-Connected Applications
- Optimization Design Algorithm for Dual-Active Bridge Converters Using Parallel Power Modules
- Non-Dissipative Regenerative Snubber for Isolated DC-DC Cuk Converter
- 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
- Analysis of Current Resonances due to Winding Parasitic Capacitances in Medium-Voltage Medium-Frequency Transformers
- Design of Nanocrystalline Medium-Voltage Medium-Frequency Three-Phase Transformers for Grid-Connected Applications
- Design of Nanocrystalline Medium-Voltage Medium-Frequency Three-Phase Transformers for Grid-Connected Applications
- Analysis of Current Resonances due to Winding Parasitic Capacitances in Medium-Voltage Medium-Frequency Transformers
- Design Optimization and Experimental Validation of Gate Driver for 10 kV SiC MOSFET
- Design Optimization and Experimental Validation of Gate Driver for 10 kV SiC MOSFET
- Design Optimization and Experimental Validation of Gate Driver for 10 kV SiC MOSFET
- Design Optimization and Experimental Validation of Gate Driver for 10 kV SiC MOSFET
- Design Optimization and Experimental Validation of Gate Driver for 10 kV SiC MOSFET
- High-Frequency Effects on Magnetics and Converter Performance: Implications for Power Electronic Converter Design
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