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Novel Graphene Field-Effect Transistors for RF to THz Electronics and Biosensing Applications DoS: Dr Shakil Awan (shakil.awan@plymouth.ac.uk , tel.: 01752 586 325) 2nd Supervisor: Dr Vincent Drach
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-state diodes and transistors with unprecedented blocking voltages, far exceeding the capabilities of modern technologies based on SiC and GaN WBG semiconductors. Ga2O3 devices can thus enable development
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the transmit power at frequencies around 300 GHz. High-electron-mobility transistors (HEMTs) based on InGaAs are well suited to implement power amplifiers at 300 GHz. Those HEMTs are currently limited in
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- “High-performance electrochemical transistors based on two-dimensional metal-organic frameworks for wearable sensing applications”. Qualifications Applicants should have: (a) a master’s degree or an
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jonctions d'une nouvelle technologie. Nos transistors sont fabriqués avec un budget thermique limité pour l'intégration séquentielle en 3D, ce qui rend l'activation des dopants très difficile. Notre équipe
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operating conditions. Nanomaterial-based sensor platforms, such as carbon nanotube (CNT)-based field-effect transistors (FETs), emerged as promising candidates, enabling the development of compact, label-free
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spintronics team in charge of developing terahertz emitters and field-effect transistors based on two-dimensional (2D) materials such as transition metal dichalcogenides. He will work within the Spintec
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limitations in materials and device concepts of transistors based on III-nitride semiconductors. In this work device characterization and modelling are important tools enabling better understanding and
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computational electromagnetics and electromagnetic simulation techniques. Experience in AI-based RF transistor modelling is highly desirable. Solid knowledge of machine learning algorithms and their application
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transistor; Focused ion beam; Nano-optics; Nanocrystal growth; Nanodevice; Nanotechnology; Nanowire; Optical microscopy; Cathodoluminescence; Eligibility citizenship Open to U.S. citizens level Open to