Jan 26, 2026 · 2h 25m
David Eagleman explains how the brain rewires itself for learning
Science & Tools of Learning & Memory | Dr. David Eagleman
Understanding the biological rules of neuroplasticity reveals how we can actively shape our brains to improve learning, memory, and cognitive adaptation.
- 1Neuroplasticity is an active process where neural networks constantly compete to colonize brain territory.
Don't miss
The discussion of Mriganka Sur's radical experiment at MIT, which proved the auditory cortex could learn to see when wired to visual inputs.
The brief
Stanford neuroscientist Andrew Huberman hosts fellow neuroscientist David Eagleman to discuss the mechanisms of neuroplasticity, revealing how the human brain constantly rewires its structure to adapt to new inputs and environments.
The brain does not operate like a static computer; instead, it functions as a dynamic, self-configuring system. When sensory inputs change, neural networks aggressively colonize unused areas to preserve and optimize processing power.
This adaptive drive is illustrated by historic scientific breakthroughs and radical experiments, such as Mriganka Sur's research at MIT, which proved that visual inputs could be rerouted to and processed by the auditory cortex.
Understanding these biological rules of neuroplasticity allows researchers to develop better tools for learning, memory retention, and sensory substitution, transforming how we approach cognitive development.
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David Eagleman
Mriganka Sur
Massachusetts Institute of Technology
Salk Institute for Biological Studies