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Apply Now Job ID JR101630Date posted 01/21/2025 This position is hosted by the Condensed Matter Physics and Materials Science Department, which has extensive expertise in quantum materials
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study of quantum materials. The goal of the research is to explore, understand, and control the novel physical mechanisms of quantum materials, including charge-spin-lattice interactions at a wide range
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that are relevant to quantum materials including superconducting thin-films and 2D heterostructures, at milliKelvin (mK) temperature. You will commission a new mK scanning probe microscope to study micro-spectroscopy
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. Ideally, will have taken a course in quantum mechanics. Experience using Microsoft Excel, PowerPoint, SharePoint, or Google Drive. Environmental, Health & Safety Requirements: Any information pertaining
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responsible for the Instrumentation Department, the Accelerator Science and Technology Department, and two new departments which will comprise the microelectronics and quantum information science and technology
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also hosts one of the brightest x-ray synchrotrons in the world, the Center for Functional Nanomaterials, the quantum information science Center for Co-Design for Quantum Advantage, the NASA Space
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for highly motivated postdoctoral researchers to conduct advanced electron microscopy studies on quantum materials for neuromorphic computing. The primary objective of this research is to explore quantum
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responsible for the Instrumentation Department, the Accelerator Science and Technology Department, and two new departments which will comprise the microelectronics and quantum information science and technology
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to the theoretical understanding, discovery, synthesis, and advanced characterization of correlated and topological quantum materials. The expertise of the selected individual is of the highest caliber where discovery
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at CFN. FEM is based on capturing electron nanodiffraction (4D-STEM) to determine the medium range order (of the length scale of nanometers) of amorphous oxides, including those relevant to quantum