Explore how real-time programmable closed-loop stimulation platforms are transforming neuroscience and treating neurological disorders through intelligent brain-computer interfaces.
Exploring how brain circuits maintain function through structural disruptions and compensatory mechanisms across lifespan and disorders.
Explore how spike-timing-dependent plasticity and synaptic tagging work together in the hippocampus to form lasting memories through precise neural timing mechanisms.
Discover how specialized cutaneous C fibres in your skin detect temperature changes and create sensations of coolness and warmth through fascinating biological mechanisms.
Exploring Walter J. Freeman's revolutionary work on cognitive neurodynamics and how he transformed our understanding of brain function through chaos theory.
Explore how correlation-based spike sorting is revolutionizing neuroscience by revealing how neurons communicate through coordinated activity patterns.
Discover how neuroscience principles like spaced repetition, active recall, and interleaving are creating intelligent learning assistants for biomedical engineering students.
Exploring Erol Başar's groundbreaking work applying General Systems Theory to neuroscience, revealing the brain as a dynamic oscillatory system.
Discover how advanced brain imaging revealed dendrites, not myelin, as the primary driver of cortical diffusion anisotropy in gray matter.
Exploring how the brain fuses time and space into a unified neural language to control movement, with implications for rehabilitation, robotics, and human performance.