Abbas Sabbar Data-verified
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Biography and Research Information
OverviewAI-generated summary
Abbas Sabbar's research focuses on the design and optimization of optocouplers and related semiconductor devices for high-temperature applications. His work investigates the performance of materials such as AlGaAs/GaAs LEDs and the development of Low-Temperature Co-fired Ceramics (LTCC) packaging for optocouplers, aiming to provide optical galvanic isolation in demanding thermal environments. Sabbar has explored the growth of pseudomorphic GeSn at low pressures, achieving specific Sn compositions. His publications also address the high-temperature analysis of optical coupling in integrated power modules.
Sabbar's scholarly output includes 21 publications, with a total of 144 citations, and an h-index of 8. He has collaborated with researchers at the University of Arkansas at Fayetteville, including Shui-Qing Yu, Oluwatobi Olorunsola, Emmanuel Wanglia, and Solomon Ojo, with whom he shares multiple publications. His most recent publications date to 2022, indicating recent activity in his field.
Metrics
- h-index: 8
- Publications: 21
- Citations: 148
Selected Publications
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Low Pressure Growth of Pseudomorphic Gesn with 16.7% Sn Incorporation (2022)
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Development of LTCC-packaged optocouplers as optical galvanic isolation for high-temperature applications (2022)
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High-temperature analysis of optical coupling using AlGaAs/GaAs LEDs for high-density integrated power modules (2022)
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Design and optimization of high temperature optocouplers as galvanic isolation (2022)
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Growth of Pseudomorphic GeSn at Low Pressure with Sn Composition of 16.7% (2021)
Collaboration Network
Top Collaborators
- Growth of Pseudomorphic GeSn at Low Pressure with Sn Composition of 16.7%
- High-temperature analysis of optical coupling using AlGaAs/GaAs LEDs for high-density integrated power modules
- Development of LTCC-packaged optocouplers as optical galvanic isolation for high-temperature applications
- Design and optimization of high temperature optocouplers as galvanic isolation
- Low Pressure Growth of Pseudomorphic Gesn with 16.7% Sn Incorporation
- High-temperature analysis of optical coupling using AlGaAs/GaAs LEDs for high-density integrated power modules
- Development of LTCC-packaged optocouplers as optical galvanic isolation for high-temperature applications
- Design and optimization of high temperature optocouplers as galvanic isolation
- Growth of Pseudomorphic GeSn at Low Pressure with Sn Composition of 16.7%
- Low Pressure Growth of Pseudomorphic Gesn with 16.7% Sn Incorporation
- Growth of Pseudomorphic GeSn at Low Pressure with Sn Composition of 16.7%
- Low Pressure Growth of Pseudomorphic Gesn with 16.7% Sn Incorporation
- Growth of Pseudomorphic GeSn at Low Pressure with Sn Composition of 16.7%
- Low Pressure Growth of Pseudomorphic Gesn with 16.7% Sn Incorporation
- Growth of Pseudomorphic GeSn at Low Pressure with Sn Composition of 16.7%
- Low Pressure Growth of Pseudomorphic Gesn with 16.7% Sn Incorporation
- Growth of Pseudomorphic GeSn at Low Pressure with Sn Composition of 16.7%
- Low Pressure Growth of Pseudomorphic Gesn with 16.7% Sn Incorporation
- Growth of Pseudomorphic GeSn at Low Pressure with Sn Composition of 16.7%
- Low Pressure Growth of Pseudomorphic Gesn with 16.7% Sn Incorporation
- Growth of Pseudomorphic GeSn at Low Pressure with Sn Composition of 16.7%
- Low Pressure Growth of Pseudomorphic Gesn with 16.7% Sn Incorporation
- Growth of Pseudomorphic GeSn at Low Pressure with Sn Composition of 16.7%
- Low Pressure Growth of Pseudomorphic Gesn with 16.7% Sn Incorporation
- High-temperature analysis of optical coupling using AlGaAs/GaAs LEDs for high-density integrated power modules
- Design and optimization of high temperature optocouplers as galvanic isolation
- Development of LTCC-packaged optocouplers as optical galvanic isolation for high-temperature applications
- Design and optimization of high temperature optocouplers as galvanic isolation
- High-temperature analysis of optical coupling using AlGaAs/GaAs LEDs for high-density integrated power modules
- Design and optimization of high temperature optocouplers as galvanic isolation
- High-temperature analysis of optical coupling using AlGaAs/GaAs LEDs for high-density integrated power modules
- Design and optimization of high temperature optocouplers as galvanic isolation
- High-temperature analysis of optical coupling using AlGaAs/GaAs LEDs for high-density integrated power modules
- Development of LTCC-packaged optocouplers as optical galvanic isolation for high-temperature applications
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