Shamar Christian
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: University of Illinois Urbana-Champaign (2022)
Faculty Researcher
Research Areas
Links
Biography and Research Information
OverviewAI-generated summary
Shamar Christian's research focuses on advancing the power density and efficiency of electrical power converters and thermal management systems for high-power applications, particularly in the automotive sector. His work investigates novel approaches to cooling discrete semiconductor devices, such as additively manufactured hybrid polymer-metal coolers and inductor encapsulation methods, to enable increased power density. Christian also studies advanced control strategies for bidirectional DC-DC converters, including synchronous-variable-frequency control and modified space-vector modulation for soft-switching inverters. His recent publications detail the development of high power density boost converters and traction inverters utilizing silicon carbide devices. Christian collaborates with researchers at the University of Arkansas at Fayetteville, including Juan Carlos Balda, Roderick Amir Gomez, Asim Amir Solangi, and Yue Zhao.
Metrics
- h-index: 5
- Publications: 12
- Citations: 156
Selected Publications
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A 155 KW/L 800 V Traction Inverter Using Discrete SiC Devices (2025)
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Sliding Window-Based Thermal Topography Determining Thermal Impedance and Thermal Coupling (2023)
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DC-Side Soft-Switching Inverter With Modified Space-Vector Modulation Scheme (2023)
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Etching Process to Reduce Interlamination Short Circuits and Core Loss Comparison for Tape-Wound Cut Cores (2022)
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Inductor Encapsulation-Based Thermal Management Enabling Increased Power Density (2022)
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High Power Density Interleaved ZCS 80-kW Boost Converter for Automotive Applications (2021)
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Synchronous-Variable-Frequency Control of Bidirectional DCM Interleaved DC–DC Converter for Wide-Range Enhanced Efficiency (2021)
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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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Variable-Frequency Controlled Interleaved Boost Converter (2020)
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150-kW Three-Port Custom-Core Transformer Design Methodology (2020)
Collaboration Network
Top Collaborators
- High Power Density Interleaved ZCS 80-kW Boost Converter for Automotive Applications
- Synchronous-Variable-Frequency Control of Bidirectional DCM Interleaved DC–DC Converter for Wide-Range Enhanced Efficiency
- Etching Process to Reduce Interlamination Short Circuits and Core Loss Comparison for Tape-Wound Cut Cores
- Inductor Encapsulation-Based Thermal Management Enabling Increased Power Density
- DC-Side Soft-Switching Inverter With Modified Space-Vector Modulation Scheme
Showing 5 of 7 shared publications
- High Power Density Interleaved ZCS 80-kW Boost Converter for Automotive Applications
- Synchronous-Variable-Frequency Control of Bidirectional DCM Interleaved DC–DC Converter for Wide-Range Enhanced Efficiency
- Etching Process to Reduce Interlamination Short Circuits and Core Loss Comparison for Tape-Wound Cut Cores
- Inductor Encapsulation-Based Thermal Management Enabling Increased Power Density
- DC-Side Soft-Switching Inverter With Modified Space-Vector Modulation Scheme
- High Power Density Interleaved ZCS 80-kW Boost Converter for Automotive Applications
- Etching Process to Reduce Interlamination Short Circuits and Core Loss Comparison for Tape-Wound Cut Cores
- Inductor Encapsulation-Based Thermal Management Enabling Increased Power Density
- High Power Density Interleaved ZCS 80-kW Boost Converter for Automotive Applications
- Etching Process to Reduce Interlamination Short Circuits and Core Loss Comparison for Tape-Wound Cut Cores
- Etching Process to Reduce Interlamination Short Circuits and Core Loss Comparison for Tape-Wound Cut Cores
- DC-Side Soft-Switching Inverter With Modified Space-Vector Modulation Scheme
- Sliding Window-Based Thermal Topography Determining Thermal Impedance and Thermal Coupling
- Sliding Window-Based Thermal Topography Determining Thermal Impedance and Thermal Coupling
- Sliding Window-Based Thermal Topography Determining Thermal Impedance and Thermal Coupling
- Sliding Window-Based Thermal Topography Determining Thermal Impedance and Thermal Coupling
- A 155 KW/L 800 V Traction Inverter Using Discrete SiC Devices
- A 155 KW/L 800 V Traction Inverter Using Discrete SiC Devices
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