Muhammad Fasih Uddin
Researcher
Also affiliated: University of Engineering and Technology Lahore (2022); University of Arkansas System (2025); Arkansas Power Electronics International (2025)
Faculty Researcher
Research Areas
Biography and Research Information
OverviewAI-generated summary
Muhammad Fasih Uddin's research focuses on the design and implementation of power electronic converters and inverters, particularly those utilizing multilevel topologies and soft-switching techniques. His work includes the development of cascaded H-bridge multilevel inverters using binary search algorithms and transformer-less dynamic power flow control systems for transmission networks. Uddin has investigated optimization methods for integrated inductors, essential components in wireless power transfer and DC-DC converters. He has also explored soft-switching inverter designs tailored for electrical motors with significant parasitic capacitances and high-density modular DC-DC converters featuring novel planar coupled inductors. His recent publications also detail the design and testing of a 100kW 3-phase soft-switched SiC inverter. Uddin collaborates with researchers at the University of Arkansas at Fayetteville, including Baher Abu Sba and Ahmed H. Ismail.
Metrics
- h-index: 4
- Publications: 11
- Citations: 26
Selected Publications
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Robust Soft-Switching Inverter Design for Electric Motors with Significant Parasitic Capacitances (2026)
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100kW 3-phase ARCP soft switched SiC (S2SiC) inverter - design and in-lab test verification (2026)
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Soft Switching Inverter Design for Electrical Motors with Significant Parasitic Capacitances (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 Generic Coupled and/or Decoupled Integrated Inductors Optimization for WPT Applications (2025)
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Optimization of Integrated Inductors for Wireless Power Transfer Applications (2024)
Collaboration Network
Top Collaborators
- A Generic Coupled and/or Decoupled Integrated Inductors Optimization for WPT Applications
- Optimization of Integrated Inductors for Wireless Power Transfer Applications
- A High-Density Modular DC–DC Converter Design With a Novel Planar Coupled Inductor
- Soft Switching Inverter Design for Electrical Motors with Significant Parasitic Capacitances
- Optimization of Fully Integrated Double-Sided LCC with Reduced Stray Field
Showing 5 of 6 shared publications
- A Generic Coupled and/or Decoupled Integrated Inductors Optimization for WPT Applications
- Optimization of Integrated Inductors for Wireless Power Transfer 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 Generic Coupled and/or Decoupled Integrated Inductors Optimization for WPT Applications
- Optimization of Integrated Inductors for Wireless Power Transfer Applications
- Optimization of Fully Integrated Double-Sided LCC with Reduced Stray Field
- 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
- Soft Switching Inverter Design for Electrical Motors with Significant Parasitic Capacitances
- Optimization of Fully Integrated Double-Sided LCC with Reduced Stray Field
- 100kW 3-phase ARCP soft switched SiC (S2SiC) inverter - design and in-lab test verification
- Soft Switching Inverter Design for Electrical Motors with Significant Parasitic Capacitances
- 100kW 3-phase ARCP soft switched SiC (S2SiC) inverter - design and in-lab test verification
- Soft Switching Inverter Design for Electrical Motors with Significant Parasitic Capacitances
- 100kW 3-phase ARCP soft switched SiC (S2SiC) inverter - design and in-lab test verification
- Optimization of Integrated Inductors for Wireless Power Transfer Applications
- Optimization of Fully Integrated Double-Sided LCC with Reduced Stray Field
- Optimization of Fully Integrated Double-Sided LCC with Reduced Stray Field
- Soft Switching Inverter Design for Electrical Motors with Significant Parasitic Capacitances
- Soft Switching Inverter Design for Electrical Motors with Significant Parasitic Capacitances
- Soft Switching Inverter Design for Electrical Motors with Significant Parasitic Capacitances
- 100kW 3-phase ARCP soft switched SiC (S2SiC) inverter - design and in-lab test verification
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