
Explore the neural basis of exceptional athletic performance, focusing on how brain region size and specialization contribute to elite skills in sports like baseball.

Explore how billions of neurons collectively create intelligence, perception, memory, and imagination through electrical signals, revealing the mysteries of the mind's computational function.

Explore how physics explains human lifespan, brain capacity, and our connection to all life. Discover the physical limits of evolution and why we sleep.

Explore cutting-edge tools and techniques for mapping and manipulating neural circuits, advancing our understanding of brain structure and function at unprecedented levels of detail.

Explore intuitive physics and psychology in human cognition, comparing it with AI approaches like deep neural networks and probabilistic programs for understanding the physical world.

Explore hardware prototyping to pilot production with NeuroBytes, an innovative electronic system mimicking neural networks. Learn from Zach Fredin's journey in creating educational tools for understanding neuroscience.

Explore how brain wiring shapes individual differences in personality, intelligence, and behavior. Discover the interplay between genetics, development, and experience in forming our unique selves.

Explore glutamatergic circuits in cortex and thalamus, focusing on functional classification, postsynaptic receptors, and metabotropic components. Gain insights into dynamic basal ganglia and modulation of driver inputs.

Explore how fly neurons process visual motion direction, focusing on cellular mechanisms, biophysical models, and recent discoveries in Drosophila's neural circuits for motion detection.

Explore neural circuits for face recognition, including a newly discovered temporal pole region. Learn about face processing systems, computational principles, and their implications for visual intelligence.

Explore how the nervous system orchestrates movement sequences, focusing on grooming behaviors in flies and the neural circuits responsible for specific grooming movements.

Explore neural decision-making mechanisms, focusing on the speed and efficiency of "winner-take-all" processes in noisy environments. Gain insights into parallel strategies and canonical circuits.

Explore the thalamus's role in cortical function, focusing on visual relays, pulvinar, and neural circuits. Gain insights into alternative views of brain organization and evolution.

Explore cognitive map theory, pattern separation, and memory processes in the hippocampus with insights from neuroscientific research and computational models.

Explore thalamocortical system's cell types, synapses, and processing mechanisms. Gain insights into retinal and cortical structures, neurotransmitters, and sensory integration in the brain.

Explore the geometry of behavior through neural manifolds, combining topology and neuroscience to understand high-dimensional information in neural circuits. Gain insights into brain function using intuitive explanations.

Explore the neural circuitry of basal ganglia and its role in reinforcement learning, focusing on representation, coding, and computation in neural networks.

Explore hippocampal theta sequences and their role in memory, planning, and decision-making. Discover how neural activity alternates between representations of current and future possibilities.

Explore hippocampal place-cell sequences and their role in neural circuits, focusing on representation, coding, and computation in the brain's spatial navigation system.

Explore the intricate mechanisms of fly navigation, from neural circuits to behavioral outputs. Discover how flies determine their heading and direction through advanced neuroscience techniques and connectome analysis.

Exploring data needs for advancing learning theories, bridging timescales from milliseconds to weeks in neurobiology. Discusses mechanisms of synaptic plasticity and associative learning across molecular, cellular, and circuit levels.