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also explore the use of these bio-based polymers in the development of durable composite materials. Are you our next PhD candidate in sustainable polymer chemistry? Your research challenge In this PhD
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, current tear-collection methods can alter tear composition and prevent reliable measurements, limiting the clinical adoption of tear-based diagnostics. In this PhD project, you will develop innovative
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composition and catalyst structure affect performance during transient Fischer–Tropsch synthesis (FTS). In this project, you will focus on understanding how variations in CO/CO₂/H₂ ratios and the presence
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infer the composition of subsurface oceans, by recognising and characterising icy grains that are originate directly from the ocean, which is an important step until lander missions, for instance such as
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, and how strain rate influences material behaviour. The resulting experimental data will be used to validate numerical models and contribute to certification by analysis of future composite structures
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transition and catalytic conversion of carbon-based feedstocks? We are looking for a motivated PhD candidate to investigate how feedstock composition and catalyst structure affect performance during transient
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overall process efficiency. Using a combination of model compounds and real lignin-derived feeds, you will investigate the influence of feed composition and operating conditions and apply systematic
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reactions. The candidate will investigate how catalyst composition, electrolyte conditions and impurities influence activity and selectivity, using electrochemical and mechanistic studies to establish
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to investigate how cartilage microtissue growth dynamics, matrix composition, and (anisotropic) matrix architecture are influenced by the mechanical and geometric properties of their environment
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thermodynamic, structural, and transport properties are essential for the modelling and design of water electrolysers. These properties strongly depend on T, p, and composition. For model development and