Patrick Vora
Professor
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Positions (1)
George Mason University
George Mason University
George Mason University’s Vora Lab in the Department of Physics and Astronomy is recruiting a postdoctoral researcher in experimental quantum materials . The project focuses on correlated electronic and excitonic phenomena in van der Waals heterostructures , using optical spectroscopy at cryogenic temperatures and in high magnetic fields . A major part of the role is to develop a new magneto-optical spectroscopy system , including design, construction, and first measurements. The position also includes fabrication and characterization of van der Waals heterostructures. The lab is affiliated with the Quantum Science and Engineering Center at George Mason and collaborates with national laboratories, federal agencies, and quantum technology companies in the Washington, DC region. The appointment is designed to support an independent research career through proposal development, mentoring of graduate and undergraduate students, and conference presentations. Eligibility: a doctorate in physics, applied physics, materials science, or a closely related field; hands-on laboratory experience in optical spectroscopy, low-temperature measurement, layered-material fabrication, or scientific instrument development; and preferably Python or LabVIEW experience for measurement automation. Funding: competitive regional salary. The position is available immediately. How to apply: contact Prof. Patrick Vora at [email protected] with a CV. A research statement may follow after an initial conversation.
Articles (10)
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2022
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2022
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2022
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2022
Cubic boron nitride (cBN) is a relatively less studied wide bandgap semiconductor despite its many promising mechanical, thermal, and electronic properties. We report on the electronic, structural, and optical characterization of commercial cBN crystal platelets. Temperature dependent transport measurements revealed the charge limited diode behavior of the cBN crystals. The equilibrium Fermi level was determined to be 0.47 eV below the conduction band, and the electron conduction was identified as n-type. Unirradiated dark and amber colored cBN crystals displayed broad photoluminescence emission peaks centered around different wavelengths. RC series zero phonon line defect emission peaks were observed at room temperature from the electron beam irradiated and oxygen ion implanted cBN crystals, making this material a promising candidate for high power microwave devices, next generation power electronics, and future quantum sensing applications.
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2022
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2021
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2020
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2020
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2020
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2020
Collaborators (4)
Joshua Young
Assistant Professor
New Jersey Institute of Technology
Brian Rolczynski
Assistant Professor
University of Nevada Reno
HEATHER LEWANDOWSKI
University of Colorado Boulder
Michael G. Spencer
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