Mohammad Hazzaz Mahmud
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: Lamar University (2017); University of Arkansas System (2019); Arkansas Power Electronics International (2022)
Faculty Researcher
Research Areas
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Biography and Research Information
OverviewAI-generated summary
Mohammad Hazzaz Mahmud's research focuses on power electronics, particularly the design and control of converters utilizing silicon carbide (SiC) semiconductor devices. His work addresses challenges in high-power applications, such as those found in heavy-duty traction systems. Publications detail the electrothermal co-design of dual inverters, the development of medium-voltage, high-power converters with optimized architectures, and enhancements to direct torque control for inverters.
Mahmud also investigates advanced cooling techniques for power electronics, including the use of additively manufactured flow manifolds for direct cooling of high-density components. His research includes risk assessment for SiC MOSFET-based inverters under demanding operating conditions, such as high coolant temperatures and off-road profiles, as well as methods for current balancing in high-power SiC inverters with paralleled modules. He has collaborated with researchers at the University of Arkansas at Fayetteville, including Zhuxuan Ma and Yue Zhao.
Metrics
- h-index: 12
- Publications: 29
- Citations: 527
Selected Publications
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Temperature Balancing for Reliability Enhancement of Power Electronics via Airflow Inversion Cooling (2026)
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Current Balancing Methods for a High Power Silicon Carbide Inverter with Paralleled Modules (2022)
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Extremum Seeking Control based Resonant Frequency Estimation for a Grid-Tied Inverter with LCL Filter (2021)
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System and Component Level Risk Assessment for SiC MOSFET Based Inverter for Traction Application at High Coolant Temperatures and Off-Road Mission Profile (2021)
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Electrothermal-Control Co-Design of an All Silicon Carbide 2×250 kW Dual Inverter for Heavy-Duty Traction Applications (2021)
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Adaptive Extremum Seeking Control Based <i>LCL</i> Filter Resonant Frequency Online Estimation (2021)
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System and Component Level Risk Assessment for SiC MOSFET Based Inverter for Traction Application (2020)
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A 150-kW 99% Efficient All-Silicon-Carbide Triple-Active-Bridge Converter for Solar-Plus-Storage Systems (2020)
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An 800-V High-Density Traction Inverter—Electro-Thermal Characterization and Low-Inductance PCB Bussing Design (2020)
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An Optimized Silicon Carbide based 2×250 kW Dual Inverter for Traction Applications (2020)
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A Virtual Space Vector-Based Model Predictive Control for Inherent DC-Link Voltage Balancing of Three-Level T-Type Converters (2020)
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Busbar Design and Optimization for Voltage Overshoot Mitigation of a Silicon Carbide High-Power Three-Phase T-Type Inverter (2020)
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Uncertainty and Disturbance Estimator-Based Robust Tracking Control for Dual-Active- Bridge Converters (2020)
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An Uncertainty and Disturbance Estimator Based Voltage Control for Dual-Active-Bridge Converters (2019)
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Design and Validation of A 250-kW All-Silicon Carbide High-Density Three-Level T-Type Inverter (2019)
Collaboration Network
Top Collaborators
- Electrothermal-Control Co-Design of an All Silicon Carbide 2×250 kW Dual Inverter for Heavy-Duty Traction Applications
- Adaptive Extremum Seeking Control Based <i>LCL</i> Filter Resonant Frequency Online Estimation
- System and Component Level Risk Assessment for SiC MOSFET Based Inverter for Traction Application at High Coolant Temperatures and Off-Road Mission Profile
- Current Balancing Methods for a High Power Silicon Carbide Inverter with Paralleled Modules
- Extremum Seeking Control based Resonant Frequency Estimation for a Grid-Tied Inverter with LCL Filter
- Electrothermal-Control Co-Design of an All Silicon Carbide 2×250 kW Dual Inverter for Heavy-Duty Traction Applications
- Adaptive Extremum Seeking Control Based <i>LCL</i> Filter Resonant Frequency Online Estimation
- System and Component Level Risk Assessment for SiC MOSFET Based Inverter for Traction Application at High Coolant Temperatures and Off-Road Mission Profile
- Current Balancing Methods for a High Power Silicon Carbide Inverter with Paralleled Modules
- Extremum Seeking Control based Resonant Frequency Estimation for a Grid-Tied Inverter with LCL Filter
- Adaptive Extremum Seeking Control Based <i>LCL</i> Filter Resonant Frequency Online Estimation
- Extremum Seeking Control based Resonant Frequency Estimation for a Grid-Tied Inverter with LCL Filter
- Adaptive Extremum Seeking Control Based <i>LCL</i> Filter Resonant Frequency Online Estimation
- Extremum Seeking Control based Resonant Frequency Estimation for a Grid-Tied Inverter with LCL Filter
- System and Component Level Risk Assessment for SiC MOSFET Based Inverter for Traction Application at High Coolant Temperatures and Off-Road Mission Profile
- Temperature Balancing for Reliability Enhancement of Power Electronics via Airflow Inversion Cooling
- Electrothermal-Control Co-Design of an All Silicon Carbide 2×250 kW Dual Inverter for Heavy-Duty Traction Applications
- Electrothermal-Control Co-Design of an All Silicon Carbide 2×250 kW Dual Inverter for Heavy-Duty Traction Applications
- Electrothermal-Control Co-Design of an All Silicon Carbide 2×250 kW Dual Inverter for Heavy-Duty Traction Applications
- Electrothermal-Control Co-Design of an All Silicon Carbide 2×250 kW Dual Inverter for Heavy-Duty Traction Applications
- Electrothermal-Control Co-Design of an All Silicon Carbide 2×250 kW Dual Inverter for Heavy-Duty Traction Applications
- System and Component Level Risk Assessment for SiC MOSFET Based Inverter for Traction Application at High Coolant Temperatures and Off-Road Mission Profile
- System and Component Level Risk Assessment for SiC MOSFET Based Inverter for Traction Application at High Coolant Temperatures and Off-Road Mission Profile
- Extremum Seeking Control based Resonant Frequency Estimation for a Grid-Tied Inverter with LCL Filter
- Current Balancing Methods for a High Power Silicon Carbide Inverter with Paralleled Modules
- Current Balancing Methods for a High Power Silicon Carbide Inverter with Paralleled Modules
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