Your Body Moves Before Your Brain Decides. Why Has Nobody Explained That?

Your body starts moving about eighty milliseconds before your brain has finished deciding anything. I have driven across this country more than twenty times, and twice now I have felt it happen.

**Note: This piece draws from my original ideas, research, hooks, and metaphors. For editing and some wording, I’ve used AI tools trained on my own books and style, always blending technology with my hands-on curation and oversight. Thank you for being here—Jade.

---

The thing that happens in the car

I drive more than anyone I know. More than twenty crossings of this country and I have lost count of the shorter runs. If I had taken a different path in life I would have made a decent truck driver, and I mean that as a compliment to truck drivers (I like driving more than most people like anything).

So I have had a few near misses. Everybody who drives that much does.

Two of them I still think about.

Both times the car was already moving before I knew anything was wrong. Not “I saw it and reacted quickly.” That is not what it was like from the inside. My hands had already turned the wheel and the knowing showed up afterward, like a passenger who slept through the whole thing and wakes up asking what happened. There was no moment where I saw a thing, decided about the thing, and then acted on the thing. The acting came first. The seeing came second. I was informed third.

I have told this to a lot of people and watched them nod before I finish, because anybody who drives enough has their own version of it.

And then there is the other one, from a long time before that.

I played sports as a kid, and every so often I would drop into a state where the whole field slowed down. Not me speeding up, exactly. Everyone else moving through syrup. I would be standing where a play was going to happen before it happened, and none of it took effort in the way effort normally feels. Athletes call it the zone. Anybody who has been in it knows it is real, and knows it has nothing to do with trying hard.

I have wondered about those two things for most of my life, and I never once thought to put them next to each other. Decades apart. Same smell.

I think I am finally getting somewhere on it. Some of what follows is settled science and some of it is a hypothesis, and I could be completely wrong about the parts that are mine. But real scientists did this work in real journals, and when you lay it side by side it starts pointing somewhere.

Let me build it slowly, because none of it makes sense without the picture first.

---

The three networks

Here is a framework I want you to have, because once you have it you will see it everywhere.

In the entire history of human beings moving information from one place to another, there have only ever been three inventions. Riders. Wires. Broadcast. Your body found at least two of them long before we did.

Riders. For most of human history, if you needed to get word to somebody, a man got on a horse. He carried a sealed letter. He traveled a real road, and the road took real days. He arrived at one specific house and he knocked on the door.

And here is the part everybody skips over. That door only opened if he had the right key for that particular lock. Not a similar key. That one. Wrong shape and nothing happens at all. He can stand on that porch until the sun goes down and the message never gets delivered, because delivery was never really about the letter. It was about whether the key fit.

That is your hormones. That is also every pill you have ever swallowed.

A gland dumps a molecule into your blood. That molecule has no address and no map. It goes where the blood goes, drifting on the current, bumping into things. The outside of your cells are covered in receptors, and a receptor is a lock, a physical shape built to accept exactly one molecular key. When the drifting molecule happens to collide with a cell wearing the matching lock, the key turns and that cell changes what it is doing.

Wrong shape, nothing. The molecule keeps drifting until it finds a lock that fits or until your liver takes it apart (this is exactly why a thyroid drug does nothing to your kidney, and it is also the entire reason side effects exist, because some keys fit locks we never intended them to fit).

That is lock and key. It is the foundation of endocrinology and of pharmacology both, and it is genuinely slow. Minutes to hours. Couriers travel.

Wires. Then in the 1800s we strung telegraph line, and after that the telephone. Enormous upgrade. A message that took a week now crossed the country in the time it took to tap it out.

But look hard at what you bought, and at what you did not buy. Somebody had to string copper from one town to the next, pole by pole, before a single word could move. And once it was strung, that message went to the far end of that wire and nowhere else on this earth. A town twenty miles off the line heard nothing. Not a faint version of it. Nothing, ever, no matter how badly they needed to hear it, because they were not connected.

That is your nervous system, and I want to be concrete about it, because people say “nerves are fast” and then stop talking.

A nerve is a cable. A real physical structure running from one specific place to one other specific place. The nerve serving your big toe runs up your leg, into your spinal cord, and up to one particular patch of brain. That is its route. That is its only route. It does not branch off to check on your liver, because your liver is not on that line, the same way that town was not on the telegraph route.

Signal moves down the fastest of those cables at around 120 meters per second (the myelinated ones, the cables with insulation on them). Foot to head in about fifteen thousandths of a second. Genuinely quick. It is the best a wire can do.

But it is still point to point. Something has to be wired to something, and the message shows up at one address.

Broadcast. Then, about a hundred years ago, we stopped needing the wire at all. Radio. Then television, then cell towers, then the wifi humming through whatever room you are sitting in. The signal leaves and it is simply everywhere. No road. No copper. No address on the envelope.

And notice the thing that makes broadcast different in kind rather than different in speed. It does not reach everybody. It reaches whoever is tuned to it. That signal is passing through your body right now carrying music and arguments and somebody’s video call, and you are getting none of it, because you are not a receiver for it. Turn on a radio and the same signal that was always in the room becomes sound.

Riders. Wires. Broadcast.

Medicine has mapped the riders in exquisite detail. We know hormones. It has mapped the wires down to the last fiber. We know nerves. On the third one it has almost nothing to say at all.

---

Now run the framework on one moment

This is where a framework earns its keep. You take one real moment and you run it through all three.

The moment is my hands on that wheel.

Could a rider have done it? No. Not even close. Couriers work in minutes and I had a fraction of a second. Rule it out and move on.

Could a wire have done it? This is the one people assume, so let us actually walk it. Light hits my eye. That gets converted to a signal. The signal runs back to the visual part of my brain. The brain has to make sense of what it is looking at, decide something about it, and generate a command. That command runs back out to the muscles of my arms and hands.

Every one of those steps is real, and every one of them costs time. The whole loop, for a visual reaction, comes in somewhere around two tenths of a second in a laboratory, with a rested subject who knows a test is coming and is trying his best.

Two tenths of a second at highway speed is about twenty feet of road.

And the wheel was already turning. Not late. Early. The knowing arrived after.

Now, I want to be honest with you here, because this is the place where a person can fool himself. Memory reorganizes. I could be describing something my brain tidied up after the fact and handed back to me as a clean story. That happens constantly and I know it happens.

But this is where I stopped taking the standard account of my own body at face value, and started reading.

Which leaves broadcast. The one nobody studies.

---

The eighty milliseconds

It turns out I am not the only one who noticed, and unlike me, they measured it.

There is a whole line of research where they give somebody a task and then hit them with a sudden loud noise. The person executes the entire prepared movement in under eighty thousandths of a second. The researchers state it flatly in the papers: that is shorter than the calculated minimum time for the sensory information to even be processed at the cortex and come back out.

The message never went up to headquarters for a decision. There was not time for the trip.

And there is a detail in that literature that got me the first time I read it. The subjects report, over and over, that the movement felt like it was made by something other than their own will.

Not “I reacted fast.” Something else did it.

That is my car. That is exactly my car, sitting in a physiology journal, described by people who were not thinking about anything remotely like what I am thinking about.

There is more. In 2016 Haith and Krakauer showed people can move accurately about eighty milliseconds sooner than they normally do, which means a good third of what we call reaction time is your body holding back on purpose. Something in you already has the answer and sits on it for a beat before it lets you have it.

You are not slow. Something in you is holding the answer back.

---

Then somebody cut the tissue in half

The wire is not the only thing carrying signal in you. Here is the experiment that convinced me of it.

In 2019 a lab at Case Western run by an engineer named Dominique Durand had a slice of living brain tissue in a dish with a slow pulse traveling across it, end to end.

They took a blade and cut it in half. Not a nick. All the way through, so every physical connection between the two halves was severed. No cable. No bridge. A gap.

The pulse crossed anyway.

They went hunting for the boring explanation, which is what you are supposed to do. Maybe a chemical courier was still getting across, so they drugged the tissue to shut chemical messaging down. It still crossed. Cells can also hand things straight to a touching neighbor through little passages in the shared wall, so they used a second drug to jam those shut. It still crossed.

So they tried the strange idea. They put an electric field across the gap, pointed against the direction of travel, to push back on whatever was moving. The crossing collapsed by more than ninety-five percent.

It was the field. The tissue was talking across a space with nothing in it.

In 2022 the same lab did it in a living animal. They cut the same structure in a rat and seventy percent of the activity still crossed. Then they slid a thin piece of glass into the gap, because glass blocks that kind of field the way a concrete wall kills your phone reception, and the crossing stopped dead. They pulled the glass back out and within half an hour it was crossing again.

Published, replicated, and not controversial among the people who actually do this work.

Your tissue broadcasts. That part is settled, and it is the floor everything else here is standing on.

---

One object, not a pile of parts

Now, a broadcast needs hardware, and this next part is textbook cell biology that almost nobody outside the field has ever heard.

Your fascia is a single continuous sheet of connective tissue wrapping and joining every muscle, every organ, every nerve, head to foot and skin to bone, with no break in it anywhere. It is the only structure in your body that touches every other structure in your body.

And it does not stop at the wall of the cell.

Sitting in the membrane of your cells are proteins called integrins. Picture a rivet driven through the wall of a tent. The outside end grips the collagen of the fascia. The inside end grips the scaffolding inside the cell. One physical piece passing straight through the wall, not two things politely touching.

What it grips on the inside is the cytoskeleton, which is essentially the fascia of the cell. Same job, smaller scale. That scaffolding includes the microtubules, hollow tubes running through the interior, and it reaches all the way in to the nucleus where your DNA sits.

So follow it. Fascia. Integrin. Cytoskeleton. Microtubule. The nucleus of one single cell. And the fascia at the near end of that chain is continuous with the fascia around your shoulder, your gut, and the sole of your foot.

None of that is contested. Integrin mechanotransduction is standard cell biology.

Which means that mechanically, you are not a collection of parts sending each other messages. You are one connected object, from the skin of your back to the DNA inside a cell in your liver.

Think about a guitar string for a second. You pluck it and the whole thing is ringing. Nobody wonders how long it took the far end to hear about it, because nothing went anywhere and there was no message to send. The string just did the thing, all of it, together.

Which is a completely different situation from a rider or a wire. Both of those have to carry something from one place to another, and carrying takes time no matter how quick you are. Whatever this third thing turns out to be, if it is real at all, it would not be carrying anything anywhere. You would just be in a different state than you were a second ago, all of you, at once.

---

What might be running on it

Here is where I move past what has been demonstrated and start putting other people’s pieces together. This is my reach and I own it as a reach.

Collagen, the material fascia is built from, is wound into tight triple spirals, and that spiral geometry lets electrical charge move along its length. Hand that material to an engineer with the biology stripped off it and he would call it a semiconductor, the same family of material your phone is built out of.

The water on it is not sloshing around loose the way water sits in a glass. Most of the water in you is pressed against membranes and wound around those spirals. Two physicists, Del Giudice and Preparata, worked out that water held that way stops behaving like an ordinary liquid and organizes into pockets where the molecules move in step, the way a milling crowd stops milling and starts marching. Their work never really got argued with. It mostly just got ignored.

Herbert Fröhlich, a serious physicist, calculated that when you pump enough energy into molecules carrying a positive and a negative end, past a certain threshold they stop jittering randomly and lock into one collective rhythm. He published that in the 1960s. Never confirmed in a living body, never ruled out either.

And your cells emit light. Measured, not in dispute, a faint trickle of photons coming off every square centimeter of you. Mainstream biology files it as exhaust, the flicker off a running engine.

Put those four on the table and look at what they describe together. A continuous fiber that conducts charge, sheathed in water that moves in step, capable of locking into one rhythm, carrying light, running from your skin into the nucleus of every cell you own.

Are those triple helices are light pipes? Is the structured water what carries the signal through them?

Light does not travel at nerve speed. Light crosses the length of your body in about eight billionths of a second where your fastest nerve needs fifteen thousandths (a nanosecond is to one second roughly what one second is to thirty years, which should tell you how big this gap really is).

Nothing in your biology happens on an eight nanosecond timescale. Not a molecule binding, not a channel opening. A light-speed channel inside you would sit underneath the resolution at which your biology could even register that something moved.

Every cell in the new state. No first and no last.

Which is why I stopped calling this faster. Faster still has something traveling and beating a clock. What I am pointing at is closer to everything simply being in the same state at the same moment.

---

And this is where intention comes in

A broadcast raises a question the other two networks never do. Somebody has to decide what goes out on the air.

Think about two people in a room, both of them running this. If your body is a transmitter and a receiver, then two bodies standing near each other are two stations, and whether anything passes between them depends on whether they are matched. Engineers call this impedance. If the impedance between two circuits does not match, the energy does not transfer, it bounces back. Anybody who has hooked a cheap speaker to a good amplifier has heard exactly what a mismatch sounds like.

There is a model, from an engineer named Heinz, that applies this straight to people. His argument is that your emotional and mental state acts as a resistor in the shared circuit. Two people whose intentions are out of phase cancel each other the way two sound waves out of phase produce silence. A practitioner who wants to help and a patient braced against being helped are not just socially mismatched. In this model they are electrically mismatched, and nothing moves between them.

You already know this is true from living, which is the only reason it is worth taking seriously. You have walked into a room and been drained by somebody who never said a word to you. You have also sat next to a person whose calm did something to your body that no sentence could have done.

In the thousands of clients I have sat with, this is the part nobody has to be sold. They cannot tell you the mechanism, but not one of them has ever argued that it does not happen.

And the front half of it is measurable today with equipment you can buy.

Your heart does not beat like a metronome. The gaps between beats stretch and shrink constantly, and that pattern runs anywhere from ragged and chaotic to smooth and wavelike. Sustained frustration shreds it. Sustained appreciation pulls it into something close to a clean wave. HeartMath has been mapping this for thirty years and nobody disputes the measurement (they also sell the monitors, so take their framing however you like, but heart rate variability itself is ordinary cardiology and has been for decades).

So the biggest rhythmic organ you own has a coherent setting and a scattered one, and your emotional state is the dial.

William Tiller spent decades on the far end of this question. He was professor emeritus of materials science at Stanford, and he argued that focused intention measurably changes physical systems, and he built machines to test it. His framework reaches further than his evidence does, and he knew that.

Here is what I think, and it is mine.

I think intention works a lot more like tuning than like magic. If your body is one connected object that can sit coherent or sit scattered, then attention is what sets which of those you are on a given day. And a broadcast, remember, does not reach everybody. It reaches whoever is tuned.

---

Which finally explains the zone

Now go back with me to being fourteen years old, watching everybody else move through syrup.

If any of this is right, then flow is a good deal more literal than a psychological description. It would be what the whole instrument going coherent at once feels like from the inside.

Not you speeding up. Everything in you arriving together, so the usual lag between perceiving and deciding and acting collapses and there is nothing left to wait on. Which would feel exactly like the world slowing down, because the world did not slow down. Your ordinary stack of delays did.

And it covers the highway too. That was not precognition and I am not claiming precognition. It was a body responding as one object while the part of me that narrates, the part that says “I,” found out afterward.

That is the part I keep chewing on. Whatever the “I” is in me, it was not the thing that turned that wheel. It got told about it later, the same way you would tell a passenger.

---

So what do you actually do with this

There is one more finding and it happens to be the practical one. When researchers study force moving through the cytoskeleton, it only transmits under tension. Slack tissue carries nothing. A string that is not strung does not ring.

So the useful version of all this is unglamorous, which is usually how you know something is probably right.

Move in ways that vary, because monotonous loading and varied loading do measurably different things to that fabric. Keep tension in the system, because a slack instrument carries no signal. Breathe slowly enough that your heart rhythm smooths out, because that costs nothing and shows up on a monitor inside a minute. Put your hands on people you love, because mechanical pressure into a fiber that conducts is not a small thing.

And watch what you carry through a doorway, because whatever the mechanism turns out to be, everybody in that room is picking you up off something quicker than your words.

I have been driving for thirty years wondering what turned that wheel. I still cannot prove what it was. But I no longer think the question was a silly one, and I no longer believe the answer is that I happen to have good reflexes.

Something in me moved first. I would like to know what it was before I am done.

---

PS. If this is the kind of thinking you would rather do on yourself than just read about, that is what The Human Game is. It is the work of finding the story running underneath your biology and rewriting it. Come play it with us. 👉 nextlevelhuman.com/the-human-game

PPS. And if you are a coach who wants to be trained to do this work with other people, the Human Architect certification is where that happens. Take a look here. 👉 nextlevelhuman.com/human-coach

---

References

Blot, A., & Barbour, B. (2014). Ultra-rapid axon-axon ephaptic inhibition of cerebellar Purkinje cells by the pinceau. Nature Neuroscience, 17(2), 289–295.

Chiang, C.-C., Shivacharan, R. S., Wei, X., Gonzalez-Reyes, L. E., & Durand, D. M. (2019). Slow periodic activity in the longitudinal hippocampal slice can self-propagate non-synaptically by a mechanism consistent with ephaptic coupling. The Journal of Physiology, 597(1), 249–269.

Del Giudice, E., Preparata, G., & Vitiello, G. (1988). Water as a free electric dipole laser. Physical Review Letters, 61(9), 1085–1088.

Fröhlich, H. (1968). Long-range coherence and energy storage in biological systems. International Journal of Quantum Chemistry, 2(5), 641–649.

Haith, A. M., Pakpoor, J., & Krakauer, J. W. (2016). Independence of movement preparation and movement initiation. The Journal of Neuroscience, 36(10), 3007–3015.

Ingber, D. E. (1997). Tensegrity: The architectural basis of cellular mechanotransduction. Annual Review of Physiology, 59, 575–599.

Na, S., Collin, O., Chowdhury, F., Tay, B., Ouyang, M., Wang, Y., & Wang, N. (2008). Rapid signal transduction in living cells is a unique feature of mechanotransduction. Proceedings of the National Academy of Sciences, 105(18), 6626–6631.

Nordenström, B. E. W. (1983). Biologically closed electric circuits: Clinical, experimental and theoretical evidence for an additional circulatory system. Nordic Medical Publications, Stockholm.

Subramanian, M., Chiang, C.-C., Couturier, N. H., & Durand, D. M. (2022). Theta waves, neural spikes and seizures can propagate by ephaptic coupling in vivo. Experimental Neurology, 354, 114109.

Valls-Solé, J., Rothwell, J. C., Goulart, F., Cossu, G., & Muñoz, E. (1999). Patterned ballistic movements triggered by a startle in healthy humans. The Journal of Physiology, 516(3), 931–938.