Research Areas
Biography and Research Information
OverviewAI-generated summary
Saroj Majakoti's research focuses on the reliability and performance of materials used in electronic packaging, particularly at high temperatures and strain rates. His work investigates die attachment materials, evaluating their fatigue performance beyond 175°C. Majakoti employs techniques such as four-point cyclic isothermal bend tests and nanoindentation combined with inverse finite element modeling to understand the elasto-plastic behavior of these materials. He also studies methods for predicting junction temperature in power modules to estimate thermal resistance, utilizing real-time monitoring techniques. His research includes an investigation into deformation processes of rolled aluminum sheets using instrumented indentation. Majakoti has 6 publications with an h-index of 1 and has collaborated with researchers including Ekene Gabriel Okafor and David Huitink at the University of Arkansas at Fayetteville.
Metrics
- h-index: 1
- Publications: 6
- Citations: 3
Selected Publications
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Design of a Full-Bridge Power Module for a Dual Active Bridge Converter (2026)
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A Nanoindentation and Inverse Finite Element Modeling-Based Study of High Temperature Attachment Material for Obtaining Elasto-Plastic Behavior (2025)
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Evaluating High Temperature Die Attachment Materials: Reliability and Fatigue Performance Beyond 175°C (2025)
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Prediction of Junction Temperature to Estimate Thermal Resistance in 1.7kV SiC Power Module using Real-time Vsd Monitoring Method (2025)
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Understanding Deformation Processes of a Rolled Aluminum Sheet Using Instrumented Indentation (2025)
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Reliability Analysis of Sintered Silver (S-Ag) for Die Attachment Using a Four-Point Cyclic Isothermal Bend Test Approach at High Temperature and Strain Rates (2024)
Collaboration Network
Top Collaborators
- Reliability Analysis of Sintered Silver (S-Ag) for Die Attachment Using a Four-Point Cyclic Isothermal Bend Test Approach at High Temperature and Strain Rates
- Prediction of Junction Temperature to Estimate Thermal Resistance in 1.7kV SiC Power Module using Real-time Vsd Monitoring Method
- Evaluating High Temperature Die Attachment Materials: Reliability and Fatigue Performance Beyond 175°C
- A Nanoindentation and Inverse Finite Element Modeling-Based Study of High Temperature Attachment Material for Obtaining Elasto-Plastic Behavior
- Understanding Deformation Processes of a Rolled Aluminum Sheet Using Instrumented Indentation
- A Nanoindentation and Inverse Finite Element Modeling-Based Study of High Temperature Attachment Material for Obtaining Elasto-Plastic Behavior
- Understanding Deformation Processes of a Rolled Aluminum Sheet Using Instrumented Indentation
- A Nanoindentation and Inverse Finite Element Modeling-Based Study of High Temperature Attachment Material for Obtaining Elasto-Plastic Behavior
- Prediction of Junction Temperature to Estimate Thermal Resistance in 1.7kV SiC Power Module using Real-time Vsd Monitoring Method
- Evaluating High Temperature Die Attachment Materials: Reliability and Fatigue Performance Beyond 175°C
- Prediction of Junction Temperature to Estimate Thermal Resistance in 1.7kV SiC Power Module using Real-time Vsd Monitoring Method
- Design of a Full-Bridge Power Module for a Dual Active Bridge Converter
- Reliability Analysis of Sintered Silver (S-Ag) for Die Attachment Using a Four-Point Cyclic Isothermal Bend Test Approach at High Temperature and Strain Rates
- Understanding Deformation Processes of a Rolled Aluminum Sheet Using Instrumented Indentation
- Prediction of Junction Temperature to Estimate Thermal Resistance in 1.7kV SiC Power Module using Real-time Vsd Monitoring Method
- Design of a Full-Bridge Power Module for a Dual Active Bridge Converter
- Design of a Full-Bridge Power Module for a Dual Active Bridge Converter
- Design of a Full-Bridge Power Module for a Dual Active Bridge Converter
- Design of a Full-Bridge Power Module for a Dual Active Bridge Converter
- Design of a Full-Bridge Power Module for a Dual Active Bridge Converter
- Design of a Full-Bridge Power Module for a Dual Active Bridge Converter
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