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, fluorescence lifetime and vibrational imaging methods. Large-scale and high-throughput imaging and analysis pipelines: data acquisition and analysis to characterize cell-types and connectivity in mammalian brain
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, microsystems for injecting drugs) or transport (Lidar for aeronautics and trains). Context and motivation As a result of the reduction in the size of CMOS transistors, low-frequency noise (LFN) due to charge
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and stress level is moderate to high. Noise level is quiet to moderate. Physical Activities Ability to work in front of a computer for extended periods of time. Occasionally required to move about the
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. The project sits at the intersection of machine learning, neuroscience, and behavior, with applications ranging from music cognition to speech-in-noise perception in audiology. You will work with naturalistic
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accurate, efficient, and robust AI models capable of operating effectively within complex and dynamic radiofrequency spectral landscapes, accounting for real-world interference, noise, and channel
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chemistry, especially concerning vibrational spectroscopy experience in microbiological work including cultivation of microbial cells, as well as different types of flow systems experience in multivariate
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these effects in different solvents with molecules of different types: organic or inorganic, structure chirality or atropoisomeria. Main activities: This project is based on Optical Raman Activity (OAR
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for real-world interference, noise, and channel variability. You will collaborate with other members of the group who will support the practical deployment of the developed AI models on portable and embedded
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Max Planck Institute of Animal Behavior, Radolfzell / Konstanz | Konstanz, Baden W rttemberg | Germany | about 1 month ago
, including improved discrimination between options of differing quality, flexible responses to environmental change, or robustness to noise. Your position The successful candidate will have the freedom
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their interpretation, including speckle noise, attenuation effects, altitude variations, and artifacts caused by atmospheric interference. Furthermore, the inherent complexity of different radar types and their specific