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– structures that regulate the selective entry of metal species into nanocompartments; and (4) inert surfaces – outer assemblies that remain stable in supersaturated solutions. Performing high-throughput
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species into nanocompartments; and (4) inert surfaces – outer assemblies that remain stable in supersaturated solutions. Performing high-throughput expression and screening of designed proteins
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see our homepage: https://www.combustionphysics.lu.se Our division has a good atmosphere/tradition of collaboration. The metal combustion project will involve many expertise and effective collaboration
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multiple sub-arrays. In particular, developing methods for compensation of non-ideal system components and synchronization. Developed methods can be experimentally verified and tested on the Large
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dynamics, such as hidden Markov models or statistical jump models, affect the optimal decision-making process for an investor. Specifically, we aim to develop new methods for regime models, including
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. To demonstrate the potential of this approach, you will use a variety of measurement techniques, including both acoustic- and optical-based methods. Work duties The main duties involved in a postdoctoral position
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requirements: A completed PhD in evolutionary biology, evolutionary ecology, animal physiology, molecular biology, or a closely related field relevant to the position. Strong proficiency in quantitative methods
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have distinctly different properties and devising methods to use each protein fraction to its best performance, and combining the separated proteins in a smart way may be a key to unravel the full
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crystallographic data. The project focuses on implementing different data processing and analysis methods relevant to time-resolved crystallography. This will involve working with automatic data processing pipelines
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aerodynamic methods and tools of turbomachinery design is therefore required, which in turn includes design and optimization in 1D, 2D, 2D Blade-to-Blade as well as 3D computational fluid dynamics (CFD) methods