Haodong Yang
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: Xi'an Jiaotong University (2022–2023)
Faculty Researcher
Research Areas
Links
Biography and Research Information
OverviewAI-generated summary
Haodong Yang's research focuses on the design and fabrication of high-frequency electronic components, particularly utilizing additive manufacturing techniques. His work has involved the development of D-Band waveguide diplexers, W-Band GSG probes, and coaxial frequency triplers, often employing copper additive manufacturing for these millimeter-wave applications. Yang has also investigated microwave components such as WR-2.2 band waveguides and bandpass filters. Beyond millimeter-wave frequencies, his research extends to power electronics, including the design of gate drivers for Silicon Carbide (SiC) MOSFETs and the evaluation of SiC-based modular multilevel converters for grid-tied applications and medium-frequency operation. He has also explored online digitalization methods for CLLC converters.
Metrics
- h-index: 3
- Publications: 12
- Citations: 67
Selected Publications
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Automated Near-Field EMI Scanning System Using Robotic Arm for Wide-Bandgap-Based Power Converters (2026)
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Digital Active Gate Driver with Closed-Loop Current Balancing for Paralleled SiC MOSFETs Using Miniature Rogowski Coils (2026)
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Evaluation of grid-tied SiC-based Modular Multilevel Converter with Medium Frequency Operation (2024)
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Optimal Point Derive for SiC MOSFET Switching Ringing Damping with Active Gate Driver Control (2024)
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Design of a Small-Scale SiC-based Modular Multilevel Converter for Experimental Verification of Back-to-back Network Studies (2023)
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An Online High-Frequency Resonant Current Digitalization Method for CLLC Converters (2023)
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A Simple Gate Driver Design for SiC MOSFET Paralleled Operation (2023)
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A Build-in Gate Driver Design for 1.7kV SiC MOSFET Module with 32-chip Paralleled (2023)
Collaboration Network
Top Collaborators
- A Simple Gate Driver Design for SiC MOSFET Paralleled Operation
- An Online High-Frequency Resonant Current Digitalization Method for CLLC Converters
- Design of a Small-Scale SiC-based Modular Multilevel Converter for Experimental Verification of Back-to-back Network Studies
- A Build-in Gate Driver Design for 1.7kV SiC MOSFET Module with 32-chip Paralleled
- Optimal Point Derive for SiC MOSFET Switching Ringing Damping with Active Gate Driver Control
Showing 5 of 6 shared publications
- A Simple Gate Driver Design for SiC MOSFET Paralleled Operation
- An Online High-Frequency Resonant Current Digitalization Method for CLLC Converters
- Design of a Small-Scale SiC-based Modular Multilevel Converter for Experimental Verification of Back-to-back Network Studies
- A Build-in Gate Driver Design for 1.7kV SiC MOSFET Module with 32-chip Paralleled
- Optimal Point Derive for SiC MOSFET Switching Ringing Damping with Active Gate Driver Control
Showing 5 of 6 shared publications
- A Simple Gate Driver Design for SiC MOSFET Paralleled Operation
- An Online High-Frequency Resonant Current Digitalization Method for CLLC Converters
- A Build-in Gate Driver Design for 1.7kV SiC MOSFET Module with 32-chip Paralleled
- Optimal Point Derive for SiC MOSFET Switching Ringing Damping with Active Gate Driver Control
- A Simple Gate Driver Design for SiC MOSFET Paralleled Operation
- An Online High-Frequency Resonant Current Digitalization Method for CLLC Converters
- Optimal Point Derive for SiC MOSFET Switching Ringing Damping with Active Gate Driver Control
- A Build-in Gate Driver Design for 1.7kV SiC MOSFET Module with 32-chip Paralleled
- Optimal Point Derive for SiC MOSFET Switching Ringing Damping with Active Gate Driver Control
- A Build-in Gate Driver Design for 1.7kV SiC MOSFET Module with 32-chip Paralleled
- Design of a Small-Scale SiC-based Modular Multilevel Converter for Experimental Verification of Back-to-back Network Studies
- Design of a Small-Scale SiC-based Modular Multilevel Converter for Experimental Verification of Back-to-back Network Studies
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