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systems. Predictive understanding of these interactions is essential for rational formulation design, but reliable theoretical models for these systems remain underdeveloped. This PhD project will develop
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microbial bioprocess engineering, including liquid and gas fermentation systems, microbial consortia design, and interspecies metabolic interactions. Design, develop, and optimize novel bioprocesses and
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of: Perform advanced microstructural and topological analysis of natural fibres using 3D imaging and image‑processing tools. Design and refine routes to isolate and tailor lignin fractions derived from
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forces. On the quantum side, we explore the extreme regime of motional quantum states of solids and their interactions to understand how to maximize mass, delocalization, and coherence time in quantum
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magnetoencephalography (MEG) and behavioral tests Data analysis using Matlab or Python (speech-brain interactions, synchronicity measurements, connectivity measurements between sources) Presentation and publication
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SD-26045-RESEARCHER IN ADVANCED PLASMA-ASSISTED DEPOSITION PROCESS DEVELOPMENT FOR CATALYTIC THIN...
photoelectrochemical applications. The project targets the synthesis of metal oxide-based thin film materials, with a strong emphasis on process design, optimization, and integration through the coupling
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analysis. Contributions to the development of novel experimental designs for dark matter axion searches are also possible. Our group provides hands-on access to state-of-the-art cryogenic facilities and the
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science, m/f/d) – full-time, EG 13 TV-AVH – Our group develops computational approaches to understand host–pathogen interactions and their evolution, with the long-term goal of identifying new strategies
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, Reliability and Trust (SnT) at the University of Luxembourg is a leading international research and innovation centre in secure, reliable and trustworthy ICT systems and services. We play an instrumental role
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leading scientists, all working at the technological edge of modern electron microscopy for advancing catalysis science. The four topics are: Designing Superior Catalytic Sites Explore nanoparticle surfaces