Neural Control of Flexibility
Flexibility isn't solely determined by muscle length or tendon elasticity; it largely hinges on neural innervation. When muscles are elongated, inhibitory pathways activate to prevent further stretching. Interestingly, the way you perceive your environment through vision influences how far you can extend your limbs, demonstrating a fascinating connection between sight, balance, and movement coordination.In this clip
From this podcast
Huberman Lab
How to Learn Skills Faster | Huberman Lab Podcast #20
Related Questions
Do you have anything to add to the statement from the episode Using Failures, Movement & Balance to Learn Faster | Huberman Lab Podcast #7 and the clip Sensory Map Alignment: "We have a map of visual space. Certain neurons are seeing things in certain portions of visual space and not others. We have a map of motor space, meaning when we move our limbs in particular directions, we know where those limbs are because even if we can't see them, we have what's called proprioceptive feedback. So we have knowledge about where our limbs are. Our maps of the motor world and our maps of the sensory world are merged"?
To what extent can the postural adaptations in the episode The Science of Hearing, Balance & Accelerated Learning | Huberman Lab Podcast #27 and the clip Balance Training Insights be attributed to direct neural coupling between oculomotor activity and axial muscle tone?
How might future neurotechnology (eye-tracking, virtual/augmented reality) be best leveraged to map and train these eye–posture interactions in a way that is both sport-specific and grounded in measurable neurophysiological mechanisms?