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Von Economo Neurons Enable Humans to Override Pain and Push Through Discomfort

Huberman Lab · Essentials: Improve Flexibility with Research-Supported Stretching Protocols · June 18, 2026
Von Economo Neurons Enable Humans to Override Pain and Push Through Discomfort
Huberman Lab
Huberman Lab
Essentials: Improve Flexibility with Research-Supported Stretching Protocols
"In your posterior insula, you have a very interesting population of very large neurons called von Economo neurons, neurons that are unbeknownst to most neuroscientists, and they seem uniquely enriched in humans. These von Economo neurons have the unique property of integrating our knowledge about our body movements, our sense of pain and discomfort, and can drive motivational processes that allow us to lean into discomfort and indeed to overcome any discomfort if we decide that the discomfort that we are experiencing is good for us or directed toward a specific goal."
Huberman reveals that von Economo neurons, located in the posterior insula and largely unknown to most neuroscientists, appear uniquely enriched in humans and enable us to consciously override pain reflexes. These neurons integrate pain perception with goal-directed behavior, allowing humans to push through discomfort when we decide it serves a purpose, a capability other animals appear to lack.

About this episode

In this Huberman Lab Essentials episode, Stanford neurobiology professor Andrew Huberman delivered a comprehensive overview of the science underlying flexibility and stretching, focusing on neural, muscular, and connective tissue mechanisms. Huberman opened by explaining the fundamental neuromuscular loops controlling stretch: motor neurons that contract muscles via acetylcholine release, muscle spindles that sense dangerous stretch and trigger protective contraction, and Golgi tendon organs that sense excessive load and shut down muscle activation to prevent injury. He then introduced a largely unknown neuronal population called von Economo neurons, located in the posterior insula and uniquely enriched in humans, which integrate pain perception with goal-directed motivation and allow humans to consciously override protective reflexes and push through discomfort when pursuing a chosen objective. Huberman reviewed multiple stretching modalities including dynamic, ballistic, static, and PNF protocols, concluding that static stretching of 30-second holds is most effective for increasing long-term range of motion. He cited peer-reviewed research showing at least 5 minutes per week of total stretching time per muscle group, distributed across 5 or more sessions, is required for meaningful gains. Counterintuitively, he presented data from a 6-week study on dancers showing low-intensity stretching at 30 to 40 percent of pain threshold outperforms moderate-intensity stretching at 80 percent, challenging conventional wisdom about needing to push into pain. The episode concluded with research from Cerebral Cortex demonstrating that yoga practitioners exhibit more than double the pain tolerance of non-practitioners and show measurably increased gray matter volume in the insular cortex, suggesting yoga reshapes brain structure to enhance interoceptive control and stress resilience. Huberman emphasized warming up before stretching and advised static stretching after rather than before resistance or cardiovascular training to avoid performance decrements.

Key takeaways

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