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Field
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element simulations, blast loading models, propagation of pressure waves in the ground and soil–structure interaction analyses to establish methods for assessing the protective capacity of existing
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the energy and physical resource consumption of AI models continues to scale, there is an increasing need for new computational paradigms that draw on the efficiency and parallelism of biological
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and life sciences. The EuXFEL High Duty-Cycle (HDC) upgrade will enable operation with long RF pulses (duty cycle above 10%) up to continuous wave (100% duty cycle), effectively increasing the number
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in surface spin lattices, we will employ a coarse-grained strategy and build effective Hamiltonians working in a model subspace from pbcEOM-CC wave functions. This strategy, combined with the static
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loading, wave–current environments (e.g., wave kinematics, high-order wave theories), and vortex-induced vibration would be highly regarded. Familiarity with contact modelling and structural degradation
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or energy-efficient mission execution. Similarly, advanced control algorithms depend on reliable sensor integration and accurate dynamic models of the vehicle and propulsion system. The PhD project will
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, contains: The construction of an experimental setup for the precise generation of ultrasonic guided waves. The exploration of diverse strategies for interrogating optical fibers utilizing the intricacies
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acquisition than conventional systems. This PhD position focuses on a broadband semiconductor photodetector platform spanning the visible and short-wave infrared (SWIR). You will translate system requirements
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theories to model both nanoscopy concepts and the quantum dynamics under investigation. • Developing and advancing radically new nanoscopy ideas, such as lightwave scanning tunnelling microscopy, time
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the muon content of air showers, confronting high-energy hadronic-interaction models and helping to solve the long-standing “muon puzzle”. You will carry out your research in the KM3NeT group at Nikhef