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This University of Amsterdam study examined how humans and artificial intelligence process visual information when identifying objects. Surprisingly, human brains and AI systems focused more on processing the background before identifying the actual object. This shared ability to separate objects from their backgrounds wasn't specifically taught but emerged naturally as a crucial step in object recognition.
This Kransnow Institute study looked at Peters' rule, a principle suggesting that brain cells connect where axons and dendrites overlap. Scientists found the rule to be 75% accurate in predicting connections between different types of brain cells in the hippocampus and 99% accurate when accounting for special cases. The findings help researchers understand how brain cells organize themselves and form networks.
This University of Milano study explores how people cooperate in social networks by looking at connections between multiple people rather than just pairs. The research found that cooperation thrives best in networks where tight-knit groups, like families or communities, are loosely connected to other groups. This mirrors how human societies naturally organize themselves, from ancient tribal communities to modern social structures.
This Vrije University study used AI to understand how people learn by analyzing data from 6,000 people practicing math online. They used two AI systems: one to predict learning progress and another to turn these predictions into simple mathematical formulas. While the AI found interesting patterns, like learning following logarithmic curves and potential improvements on existing theories, it's unclear if these patterns apply universally to all types of learning.
The interplay between artificial intelligence (AI) and neuroscience reshapes how we understand the brain and intelligent systems. Santie McKenzie dives into a recent National Academies workshop titled Exploring the Bidirectional Relationship Between Artificial Intelligence and Neuroscience, showcasing how these two fields enrich one another, from designing smarter algorithms to decoding the neural mechanisms of perception, learning, and decision-making. Tangible examples of AI-driven neuroscience advances and brain-inspired computational breakthroughs reveal how these disciplines are tightly intertwined.
Professor Narayanan's research focuses on human-centered sensing/imaging, signal processing, and machine intelligence centered on human communication, interaction, emotions, and behavior. He also leads the USC Signal Analysis and Interpretation Laboratory (SAIL).
SAIL focuses on human-centered signal and information processing that addresses key societal needs, pioneering behavioral signal processing and behavioral machine intelligence, affective computing, and more.
Their research areas include Computational Speech Science, Speech and Language Processing Technologies, Biosignal Sensing and Processing, and more.
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