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introduce significant challenges due to highly dynamic radio environments, heterogeneous backhaul infrastructures, mobility, resource constraints, and service disruptions. The core research focuses on the MAC
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design, fabricate, and characterize dynamic surfaces that form tactile features such as corrugations, Braille-like patterns, responsive fibres, suction-inspired structures, and switchable soft-hard
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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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monitoring of dynamic systems. We develop the technologies of tomorrow through close cooperation with industry and academia, both in Norway and internationally. The Department contributes to the digitalization
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Challenge: Extreme water events threaten people and infrastructure Change: Understand impact dynamics with experiments and numerical simulations Impact: Optimize the design of resilient
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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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dynamically balance throughput, latency, reliability, and energy efficiency according to users' needs and changing network conditions. Meeting these demands requires a new networking paradigm. RF communication
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for the analysis and control of large classes of nonlinear and high-dimensional systems, such as air flow dynamics in complex greenhouse environments. In this PhD project, you will explore and conduct research
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clinical trials testing exercise and “exercised plasma” as treatment strategies (e.g., the ExPlas Study). MolEx takes the crucial next step: mapping, in humans, the temporal dynamics and molecular signatures
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life sciences institutes. With 33 research groups and 500 employees, we are a dynamic and international research community that has spawned many fundamental discoveries in biology and medicine as