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high-temperature Bose-Einstein condensates to trapped solid-state particles in ultra-high vacuum. We combine advanced quantum optics methods in both discrete and continuous variables with cutting-edge solid-state
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. The successful applicant is expected to help produce independent and original research within Royal Holloway’s Centre for Particle Physics and Astronomy, submit publications to refereed journals, and work with and
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. The core techniques used will be single-particle cryo-EM and in situ cryo-electron tomography, with support from classical cell biology, biochemistry and molecular biology methodologies. The cryo-EM research
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) or equivalent qualifications PhD (or near to completion) in relevant subject area (structural biology or biophysics) Proficiency in at least one of these techniques (e.g., single-particle electron microscopy, NMR
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microfluidics, high frequency (>kHz) acoustics, surface acoustic wave, dielectrophoresis based electrical or other microfluidic techniques used to manipulate molecules, particles or fluids. A3 A comprehensive and
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performance, surface area, and selective permeability. The successful candidate will investigate methods to coating active materials, such as nanostructured coatings, to protect the LFP particles while
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protein production, the analysis of interactions between macromolecules, and good background in structural biology and biophysics. Since your project will likely use a combination of single particle cryoEM
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of interactions between macromolecules, and good background in structural biology and biophysics. Since your project will likely use a combination of single particle cryoEM, cryoET, and X-ray crystallography, you
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this broad area will be encouraged. The successful applicant is expected to help produce independent and original research within Royal Holloway’s Centre for Particle Physics and Astronomy, submit publications
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of the project focuses on measuring the gravitational force between milligram-scale gold particles, representing a new mass scale showing gravitational forces within a system. This work is part of the ERC Advanced