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📄 Abstract
Abstract: To study how the human brain works, we need to explore the organization of
the cerebral cortex and its detailed cellular architecture. We introduce
CytoNet, a foundation model that encodes high-resolution microscopic image
patches of the cerebral cortex into highly expressive feature representations,
enabling comprehensive brain analyses. CytoNet employs self-supervised learning
using spatial proximity as a powerful training signal, without requiring manual
labelling. The resulting features are anatomically sound and biologically
relevant. They encode general aspects of cortical architecture and unique
brain-specific traits. We demonstrate top-tier performance in tasks such as
cortical area classification, cortical layer segmentation, cell morphology
estimation, and unsupervised brain region mapping. As a foundation model,
CytoNet offers a consistent framework for studying cortical microarchitecture,
supporting analyses of its relationship with other structural and functional
brain features, and paving the way for diverse neuroscientific investigations.
Key Contributions
CytoNet is introduced as a foundation model for the human cerebral cortex, encoding high-resolution microscopic image patches into expressive feature representations using self-supervised learning. It enables comprehensive brain analyses, achieving top-tier performance in tasks like cortical area classification and layer segmentation, while being biologically relevant and anatomically sound.
Business Value
Accelerates neuroscience research by providing powerful tools for analyzing brain structure, potentially leading to breakthroughs in understanding neurological disorders and developing new treatments.