Research Areas
Biography and Research Information
OverviewAI-generated summary
David Agogo-Mawuli's research focuses on the optimization and reliability of power electronic systems, particularly in extreme environments. His work has explored automated layout optimization methods for bidirectional DC-DC ZVS converters, incorporating power synthesis tools. He has investigated factoring interacting stress mechanisms into the design for reliability of power modules, developing frameworks like LAREL (Reliability-Aware Framework for Power Module Layout Optimization) that account for dynamic drive cycle stresses. Agogo-Mawuli has also contributed to automated multi-physics reliability-oriented layout design for multi-chip power modules using the LAREL tool. His scholarly output includes publications on these topics, with a notable h-index of 1 and a total of 3 publications.
Metrics
- h-index: 2
- Publications: 3
- Citations: 7
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
- LAREL: A Reliability-Aware Framework for Power Module Layout Optimization Under Dynamic Drive Cycle Stress
- 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 Multi-Physics Reliability-Oriented Layout Design for Multi-Chip Power Modules Using the LAREL Tool
- Automated Multi-Physics Reliability-Oriented Layout Design for Multi-Chip Power Modules Using the LAREL Tool
- Automated Multi-Physics Reliability-Oriented Layout Design for Multi-Chip Power Modules Using the LAREL Tool
- Automated Multi-Physics Reliability-Oriented Layout Design for Multi-Chip Power Modules Using the LAREL Tool
- LAREL: A Reliability-Aware Framework for Power Module Layout Optimization Under Dynamic Drive Cycle Stress
- LAREL: A Reliability-Aware Framework for Power Module Layout Optimization Under Dynamic Drive Cycle Stress
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