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intensification, dynamic operation, and resource recovery. The project combines modelling, pilot-scale experimentation, and techno-economic assessment to establish MECs as viable unit operations within next
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deployed. As a PhD candidate in the Propulsion & Power group at TU Delft, you will tackle this challenge through advanced experimental and analytical investigations, focusing on how two-phase flow develops
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, FCVD creates a liquid-like layer that fills narrow trenches on substrates before solidifying into films. We will model this across multiple scales, from atoms to fluid flow, using quantum chemistry
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interdisciplinary research to join a collaborative project between the Precision Therapeutics group (Dr. Alina Rwei) in the Department of Chemical Engineering and the Complex Fluid Processing group (Prof. Johan
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of molecules in biological fluids and gases. Achieving these ambitious goals requires substantial further development of key femtosecond technologies, which will be realised in the frame of a prestigious Max
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. Correlated experimental, ab initio and multi-scale techniques are central to our mission: Development and application of advanced simulation techniques to explore and identify the fundamental structures and
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increase local damage. In addition to numerical research, the PhD candidate will contribute to experimental investigations of geomaterials subjected to high strain rates. Laboratory testing will be used
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increase local damage. In addition to numerical research, the PhD candidate will contribute to experimental investigations of geomaterials subjected to high strain rates. Laboratory testing will be used
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28.07.2023, Academic staff Prof. Karen Alim’s group on Biological Physics and Morphogenesis at the TUM Campus Garching uses theoretical and experimental methods to investigate how flow networks self