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How to Control Your Sense of Pain & Pleasure

This episode I discuss our sense of pain and pleasure: where and how they each arise in our mind and body and various ways to control their intensity. I discuss the science of behavioral tools like acupuncture and hypnosis and directed pressure, including the neural circuits they each activate to modulate our experience of pain or pleasure. I also discuss whole body pain, pain "syndromes" and novel pain relief compounds such as Acetyl-L-Carnitine, SAMe and Agmatine. I discuss neuroplasticity of the pain system and the key role that visual perception plays in pain modulation. Finally, I address the link between dopamine, serotonin, and oxytocin, with arousal, pleasure and pain. As always, both basic science and various protocols are described. Note: The description of the dorsal root ganglia (DRGs) was intentionally simplified and does not include mention of dorsal horn spinal relay neurons, etc.. For an excellent full text review of this anatomy and circuits for touch sensing, please see: https://www.ncbi.nlm.nih.gov/pmc/articles/PMC3811145/ #hubermanlab #pain #pleasure #dopamine #motivation Thank you to our sponsors: InsideTracker - https://www.insidetracker.com/huberman Helix Sleep - https://www.helixsleep.com/huberman Athletic Greens - https://www.athleticgreens.com/huberman Our Patreon page: https://www.patreon.com/andrewhuberman Supplements from Thorne: http://www.thorne.com/u/huberman Social: Instagram - https://www.instagram.com/hubermanlab Twitter - https://twitter.com/hubermanlab Facebook - https://www.facebook.com/hubermanlab Website - https://hubermanlab.com Join the Neural Network - https://hubermanlab.com/neural-network Links: Instagram discussion with Dr. Sean Mackey, MD, PhD - https://www.instagram.com/p/CMVq0X8Bk1D/ Agmatine study - https://bit.ly/3CtTwRn Mechanistic basis of acupuncture - https://bit.ly/2VHi0pz Timestamps: 00:00:00 Skin, Pain, Pleasure 00:01:50 Protocol 1: Maximizing Motivation (with Dopamine & Pleasure) 00:07:12 Sponsors: InsideTracker, Helix Sleep, Athletic Greens 00:12:04 Pleasure & Pain, & Skin Sensors 00:18:13 Sensing Touch with Your Brain: Magnification of Feet, Hands, Lips, Face, Genitals 00:22:16 Two-Point Discrimination, Dermatomes 00:28:11 Thoughts & Genes That Make Physical Pain Worse 00:33:45 Expectations, Anxiety, & Pain Threshold 00:40:27 Protocol 2: Cold Sensing Is Relative; Getting Into Cold Water 00:45:22 Protocol 3: Heat Is Absolute 00:48:10 Injury & Pain 00:52:04 Protocol 4: Plasticity of Pain: Key Role of Vision 00:58:08 Sensing Disparate Body Parts As Merged 01:01:00 Pain “Syndromes”, Psychogenic Fever, “Psychosomatics” 01:04:40 Fibromyalgia, Naltrexone, Protocol 5: Acetyl-L-Carnitine 01:12:24 Protocol 6: Agmatine, S-adenosyl-L-methionine (SAMe), L-5-Methyltetrahydrofolate* 01:17:27 Acupuncture: Mechanism, Non-Responders, Itch & Inflammation 01:28:20 Laser Photobiomodulation, Protocol 7: Hypnosis (reveri.com) 01:30:00 Protocol 8: Pressure-Based Pain Relief, “Gate Theory of Pain (Relief)” 01:37:53 Redheads & Pain Thresholds, Endogenous Opioids 01:44:02 Protocol 8: Love & Pain, Dopamine 01:49:23 Pleasure & Reproduction, Dopamine & Serotonin, Oxytocin 01:51:40 Protocol 9: PEA, L-Phenylalanine (Precursor to Tyrosine) 01:55:40 Contextual Control of Pleasure by Autonomic Arousal, Dopamine Baselines 01:59:40 Pleasure-Pain Balance 02:01:24 Protocol 10: Controlling Pleasure, Dopamine & Motivation Over Time 02:06:40 Protocol 11: Immediate, Non-Goal-Directed Pleasure, PAG 02:08:40 Direction of Touch: Pleasure Versus Pain, Arousal & Touch “Sensitivity” 02:13:00 Synthesis & How to Conceptualize Pain and Pleasure, Support Please note that The Huberman Lab Podcast is distinct from Dr. Huberman's teaching and research roles at Stanford University School of Medicine. The information provided in this show is not medical advice, nor should it be taken or applied as a replacement for medical advice. The Huberman Lab Podcast, its employees, guests and affiliates assume no liability for the application of the information discussed. Title Card Photo Credit: Mike Blabac - https://www.blabacphoto.com

Andrew Hubermanhost
Aug 8, 20212h 16mWatch on YouTube ↗

At a glance

WHAT IT’S REALLY ABOUT

Harness Dopamine, Touch, And Mindset To Transform Pain Into Pleasure

  1. Andrew Huberman explains how pain and pleasure sit on a single continuum governed by skin sensors, spinal pathways, and brain circuits that interpret touch, temperature, and injury. He emphasizes that pain is a subjective brain-created experience, not simply signals from 'pain receptors', and that pleasure uses overlapping circuitry driven largely by dopamine and serotonin.
  2. The episode details how factors like expectation, anxiety, genetics, circadian timing, motivation, and love can dramatically modulate pain, and how tools such as intermittent rewards, cold/heat exposure, supplements, hypnosis, and acupuncture can be strategically used. Huberman also explores whole-body pain syndromes like fibromyalgia, phantom limb phenomena, and the special case of redheads’ higher pain thresholds.
  3. He cautions against chronically spiking dopamine through drugs or overstimulation, explaining how this erodes motivation and pleasure over time, and outlines how intermittent reward schedules can sustain 'near-infinite' motivation. Throughout, he connects deep mechanistic neuroscience to practical levers anyone can use to experience less pain and more pleasure.

IDEAS WORTH REMEMBERING

5 ideas

Use intermittent rewards to dramatically increase motivation and sustained effort.

Dopamine spikes in anticipation of reward, not when the reward arrives; once a reward is received, dopamine returns to baseline. When rewards are delivered on a fixed schedule (every success gets a prize), dopamine responses plateau. Randomizing rewards—sometimes withholding them after good performance—can double or triple dopamine release and motivation by exploiting 'reward prediction error'. Practically, avoid celebrating or rewarding every win (for yourself, kids, or teams); instead reward unpredictably to keep effort high over time.

Expectation and timing can significantly buffer or worsen pain perception.

Knowing a painful stimulus is coming 20–40 seconds in advance allows mental preparation that reduces perceived pain. Warning only 2 seconds before or 2 minutes before tends to worsen pain due to unproductive anxiety or prolonged arousal. This shows pain isn’t just signals from tissue; it’s heavily shaped by top-down interpretation. In medical, athletic, or everyday contexts, request/offer realistic short-window warnings before painful procedures or effort to reduce distress.

Cold and heat receptors operate differently; how you enter affects discomfort.

Cold receptors respond to *relative* drops in temperature. Entering cold water slowly forces many incremental drops and more firing of cold fibers, making it feel worse. Rapid, full immersion (up to neck/shoulders, in safe conditions) is actually easier neurobiologically and feels more tolerable once submerged. Heat receptors respond to *absolute* temperature, so gradual entry and careful titration of sauna/heat exposure is safer and more sustainable than abrupt jumps to very high heat.

Pain is highly subjective and can be overridden or distorted by context and vision.

The same physical stimulus can be rated anywhere from mildly uncomfortable to excruciating across different people, including trained physicians. Dramatic cases—like a worker feeling extreme pain from a nail that never pierced his foot—show that visual interpretation can create or remove pain instantly. Clinically, this means pain reports must be taken seriously regardless of visible damage; personally, it highlights how looking at wounds or imagining damage can amplify pain, and re-appraisal (or avoiding certain visuals) can reduce it.

Specific neural and immune mechanisms underlie many forms of chronic and whole-body pain.

Conditions like fibromyalgia, once dismissed as 'just in the head', now have identified biological contributors, including glial Toll-like receptor 4 (TLR4) activation. Low-dose naltrexone, by blocking TLR4 on glia, shows clinical benefit for some fibromyalgia patients. Compounds like acetyl-L-carnitine may reduce chronic and neuropathic pain, support peripheral nerve health, and modulate inflammatory cytokines, though dosing and duration matter. Any such approach should be medical-supervised, but the key is: chronic pain often has real, tractable biological drivers.

WORDS WORTH SAVING

5 quotes

Dopamine is not the molecule of pleasure; it's the molecule of motivation and anticipation.

Andrew Huberman

Pain is not an event in the skin. Pain is a subjective, emotional experience created by the brain.

Andrew Huberman

Intermittent reward schedules harness the biology of dopamine in ways that can allow you essentially infinite motivation over time.

Andrew Huberman

Anytime you hear or see the word 'syndrome', that means that the medical establishment does not understand what's going on.

Andrew Huberman (relaying Dr. Sean Mackey’s point)

You might want to be wary of any experience that drives your dopamine too high, because every big peak in pleasure recruits an opposing pain process.

Andrew Huberman

Neural anatomy of touch, pain, and pleasure (skin receptors, DRGs, homunculus, dermatomes)Dopamine, reward prediction error, and intermittent reward for motivationSubjectivity of pain: expectation, anxiety, circadian rhythm, genes, and contextHeat and cold sensing, and practical protocols for cold/heat exposureChronic and whole-body pain (fibromyalgia, glial Toll-4 receptors, neuropathy) and treatmentsNon-pharmacologic pain tools: acupuncture, hypnosis, gate control (rubbing), mindsetPleasure circuitry: dopamine vs serotonin, endogenous opioids, PAG, love, and sexual circuitry

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