The researcher's work integrates computational modeling across various biological scales, from single cells to entire brain networks, using theoretical frameworks and experiments on diverse organisms like *E. coli* and *Caenorhabditis elegans*. This approach bridges biophysical principles with empirical data to explore how information processing functions in mammals, examining cognitive processes such as memory and learning through multi-scale analyses. The study emphasizes the importance of combining experimental observations with mathematical models to advance our understanding of animal behavior and neural information processing.
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