Research Areas
Biography and Research Information
OverviewAI-generated summary
David Agogo-Mawuli is a graduate student at the University of Arkansas at Fayetteville. His research focuses on the reliability of power electronic devices, particularly in extreme environments. Agogo-Mawuli investigates methods for optimizing the layout of bidirectional DC-DC converters, as demonstrated in his 2023 publication "Automated Layout Optimization Methods of a Bidirectional DC-DC ZVS Converter Using PowerSynth." He also studies the impact of interacting stress mechanisms on the design for reliability of power modules intended for harsh conditions, as detailed in his 2023 publication, "Factoring Interacting Stress Mechanisms in Design for Reliability of Extreme Environment Power Modules." Agogo-Mawuli has co-authored three publications, with a citation count of four and an h-index of one. His key collaborators at the University of Arkansas at Fayetteville include Yarui Peng, David Huitink, Imam Al Razi, and Collin Ruby.
Metrics
- h-index: 1
- Publications: 3
- Citations: 4
Selected Publications
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LAREL: A Reliability-Aware Framework for Power Module Layout Optimization Under Dynamic Drive Cycle Stress (2025)
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Automated Multi-Physics Reliability-Oriented Layout Design for Multi-Chip Power Modules Using the LAREL Tool (2025)
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Automated Layout Optimization Methods of a Bidirectional DC-DC ZVS Converter Using PowerSynth (2023)
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Factoring Interacting Stress Mechanisms in Design for Reliability of Extreme Environment Power Modules (2023)
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Factoring Interacting Stress Mechanisms in Design for Reliability of Extreme Environment Power Modules (2023)
Collaboration Network
Top Collaborators
- Automated Layout Optimization Methods of a Bidirectional DC-DC ZVS Converter Using PowerSynth
- Factoring Interacting Stress Mechanisms in Design for Reliability of Extreme Environment Power Modules
- Factoring Interacting Stress Mechanisms in Design for Reliability of Extreme Environment Power Modules
- Automated Layout Optimization Methods of a Bidirectional DC-DC ZVS Converter Using PowerSynth
- Factoring Interacting Stress Mechanisms in Design for Reliability of Extreme Environment Power Modules
- Factoring Interacting Stress Mechanisms in Design for Reliability of Extreme Environment Power Modules
- Factoring Interacting Stress Mechanisms in Design for Reliability of Extreme Environment Power Modules
- Factoring Interacting Stress Mechanisms in Design for Reliability of Extreme Environment Power Modules
- Factoring Interacting Stress Mechanisms in Design for Reliability of Extreme Environment Power Modules
- Factoring Interacting Stress Mechanisms in Design for Reliability of Extreme Environment Power Modules
- Factoring Interacting Stress Mechanisms in Design for Reliability of Extreme Environment Power Modules
- Factoring Interacting Stress Mechanisms in Design for Reliability of Extreme Environment Power Modules
- Factoring Interacting Stress Mechanisms in Design for Reliability of Extreme Environment Power Modules
- Factoring Interacting Stress Mechanisms in Design for Reliability of Extreme Environment Power Modules
- Automated Layout Optimization Methods of a Bidirectional DC-DC ZVS Converter Using PowerSynth
- Automated Layout Optimization Methods of a Bidirectional DC-DC ZVS Converter Using PowerSynth
- Automated Layout Optimization Methods of a Bidirectional DC-DC ZVS Converter Using PowerSynth
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