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Huberman LabHuberman Lab

How to Use Exercise to Improve Your Brain’s Health, Longevity & Performance

In this episode, I discuss how different forms of exercise impact brain health and performance in both the short and long term.

Andrew Hubermanhost
Jan 5, 20251h 49mWatch on YouTube ↗

Summaries, chapters, transcripts, and FAQs on this page are made by uListen, not YouTube.

At a glance

WHAT IT’S REALLY ABOUT

Harness Exercise To Supercharge Learning, Memory, Sleep, And Longevity

  1. Andrew Huberman explains how different types of exercise—cardio, resistance training, sprints, and impact work—directly enhance brain health, learning, memory, and cognitive longevity.
  2. He argues that 60–70% of exercise’s acute brain benefits are mediated by increased autonomic arousal (epinephrine, norepinephrine, dopamine) and cerebral blood flow, which sharpen focus and memory before, during, or after learning.
  3. Over the long term, exercise drives structural and molecular brain changes, including BDNF, osteocalcin from bones, lactate signaling, and improved blood–brain barrier integrity, all of which slow age-related decline.
  4. Huberman outlines a weekly framework of four core exercise types, plus a fifth ‘do-what-you-dread’ category to build the anterior mid-cingulate cortex, a key hub of grit and willpower strongly associated with ‘SuperAger’ brains.

IDEAS WORTH REMEMBERING

5 ideas

Use exercise strategically around learning to enhance memory and performance.

Elevated autonomic arousal improves encoding and consolidation of information when it occurs before, during, or after learning. Short intense bouts (e.g., six 6‑second all‑out sprints with 1‑minute rest) or 20–30 minutes of steady-state cardio both significantly improve performance on tasks like memory recall and Stroop tests. The key is proximity in time: pair your learning session closely with exercise rather than obsessing about exact timing.

Don’t overdo high-intensity training if you need sharp cognition afterward.

A single HIIT session boosts executive function by increasing arousal and cerebral blood flow. However, doing multiple exhaustive HIIT sessions in a day (e.g., two ‘4×4’ bouts near max heart rate) reduces cerebral blood flow during subsequent cognitive tasks and impairs performance. For brain-focused days, stick to one hard session and avoid double-dose HIIT unless you’re not relying on high-level mental work afterward.

Build a weekly ‘brain-optimized’ exercise plan with four core components.

Huberman recommends at least: (1) one long, slow distance / zone 2 cardio session (45–75 minutes) to strengthen cardiovascular and cerebral blood flow; (2) one HIIT or VO₂max-style session (intervals from ~6 seconds to a few minutes at very high intensity with full rest) for arousal, lactate, and vascular adaptations; (3) resistance training that includes deliberate time-under-tension to maximally recruit motor neurons and muscle–brain signaling; and (4) some form of jumping plus controlled landings to load the skeleton and trigger osteocalcin release for hippocampal health.

Exploit body–brain signaling pathways: movement is a neurochemical switch.

When you move, motor cortex outputs drive the spinal cord, which activates the adrenal medulla via cholinergic neurons, causing epinephrine release. That epinephrine acts on the vagus nerve, NST/NTS, and then the locus coeruleus, which ‘sprinklers’ norepinephrine across the brain. This rapidly raises arousal, focus, and readiness for learning. Compound, core-heavy movements (squats, deadlifts, presses, rows, dips, pull-ups) are especially effective for turning on this circuitry.

Bone, lactate, and glial cells are hidden levers for brain longevity.

Mechanical loading of bones during impact and eccentric landings releases osteocalcin, which crosses the blood–brain barrier, supports hippocampal neurons, and appears to act partly via BDNF. High-intensity work that produces lactate provides preferred fuel for neurons, suppresses appetite, and stimulates VEGF to strengthen the blood–brain barrier—critical for resisting age-related cognitive decline. Astrocytes in the brain also generate lactate in response to neuronal activity, creating an activity-dependent support loop for plasticity.

WORDS WORTH SAVING

5 quotes

Probably 60 to 70% of the effects of exercise on brain health, performance, and longevity can be explained by the specific shifts in our physiology during those bouts of exercise, which is this increase in autonomic arousal.

— Andrew Huberman

You can do very brief, very intense bouts of exercise—six‑second all‑out efforts—and experience an enhancement in cognitive function.

— Andrew Huberman

The movement of your body is creating specific neurochemical outcomes both in the body and the brain that create the arousal that initiates the improvements in focus and attention.

— Andrew Huberman

Any exercise program that's designed not just to benefit our body but also our brain health and performance should do something to load the skeleton in some sort of impactful way that causes the release of osteocalcin.

— Andrew Huberman

The fifth category is the one that you absolutely don't want to do… if you want to improve brain function and brain health over time, you have to do things that you don't want to do.

— Andrew Huberman

Read the available transcript
Acute effects of exercise-induced arousal on learning and memoryLong-term molecular and structural brain adaptations (BDNF, osteocalcin, lactate, VEGF)Cardio modalities: steady-state, zone 2, and high-intensity interval training (HIIT)Resistance training: compound vs isolation, time-under-tension, and neural pathwaysBody–brain communication: heart, adrenals, vagus nerve, liver, bones, and astrocytesSleep as a mediator of exercise’s cognitive and longevity benefitsAnterior mid-cingulate cortex, grit, and ‘do-what-you-don’t-want-to’ training

High quality AI-generated summary created from speaker-labeled transcript.

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