Your Body Is an Electrical System
Most people think of the body as a chemical machine — food goes in, energy comes out, hormones send messages. We talk about protein, fat, and carbohydrates as if they are just fuel to burn. But food is stored light. Plants capture photons from the sun and lock them into chemical bonds. When you eat that food, your mitochondria break those bonds open and release the stored light energy as electrons. Every molecule of protein, fat, or carbohydrate you eat delivers electrons into the electron transport chain inside your mitochondria. The end product is not just calories — it is electrical charge. Your body runs on electricity. Every nerve impulse, every heartbeat, every signal that tells a wound to heal — these are electrical events.
The surgeon and researcher Robert O. Becker spent decades mapping what he called the body's direct current (DC) system. What he found was a separate electrical network running through perineural cells — specifically Schwann cells. Think of nerves as electrical cables. The nerve itself carries fast on-off signals (like data). The Schwann cells are the insulation wrapped around those cables — but Becker discovered they do far more than insulate. They carry their own slow, steady electrical current, completely separate from the nerve impulses. This DC system runs all the time, like the background hum of a power grid. These Schwann cells outnumber your neurons roughly ten to one, and they form a continuous network throughout your entire body.
This DC current is incredibly small — measured in picoamps and nanoamps. You would need specialised equipment to detect it. But its influence is enormous. Becker showed it controls healing, growth, pain perception, consciousness, and biological timing. When the current flows correctly, wounds heal, bones mend, and tissues regenerate. When it is disrupted, those processes stall.
Think of it this way: chemistry is what the body is made of. Electricity is what tells it what to do. Without the electrical signal, the chemistry just sits there.
This is the starting point for everything that follows. Your body is not just a bag of chemicals — it is an electrical system that depends on conductors, semiconductors, charge, grounding, and magnetic fields to function. Once you see it this way, the rest of this article will make intuitive sense.
The different currents and frequencies in your body (click to expand)
Your body uses several different types of electrical signals. Here is what each one is and what it does:
Nerve impulses — fast, on-off signals that travel along your nerves. These are like digital data — they fire or they don't. They carry specific messages: move this muscle, feel this sensation. Speed: up to 120 metres per second.
DC current (Becker's system) — a slow, steady, continuous current running through the Schwann cells that wrap around your nerves. This is analogue, not digital — it varies in strength like a dimmer switch. It controls the big-picture functions: healing, growth, pain, consciousness, and biological timing. The current is incredibly small — picoamps and nanoamps — but it governs everything.
Piezoelectric current — generated when bone, collagen, or fascia is mechanically stressed. Every step, every swing, every impact produces a tiny electrical signal. This is what tells bone where to build and where to remodel. No load, no signal, no building.
Photoelectric current — generated when light hits certain materials. Your bone and skin are photoelectric — sunlight (especially red and infrared wavelengths) boosts the electrical current flowing through them. More sun, more current, stronger signals.
Semiconduction — electrical conduction through the structured water inside your cells and along your collagen fibres. This is the body's main highway for electrical signals. Unlike a copper wire, a semiconductor can amplify, switch, and process signals — which is why your body can do far more with a tiny current than any wire could.
Schumann resonance (7.83 Hz) — the Earth's own electromagnetic pulse, created by lightning strikes between the surface and the upper atmosphere. This is the planet's heartbeat. Your brain's alpha wave — the frequency of calm, focused awareness — runs at the same rate. When you are grounded and in nature, your brain synchronises with this signal.
Non-native EMF — man-made electromagnetic fields from WiFi, Bluetooth, cell towers, power lines, and electronic devices. These are frequencies your body has never evolved with. They interfere with the DC system, disrupt semiconduction, and cause a chronic stress response. The body cannot distinguish them from a real threat, so it stays in a low-grade state of alert — burning energy fighting a signal it cannot see or resolve.
Bone — A Living Semiconductor
In the 1950s and 1960s, Becker and another researcher, Andrew Bassett, made a discovery that changed how we should think about bone. They found that bone is piezoelectric — it generates electrical charge when you put mechanical stress through it. Every step you take, every swing you make, every time you load your skeleton, your bones produce a small electrical current.
What does piezoelectric mean? (click to expand)
Piezoelectric means a material that produces electricity when you squeeze, bend, or stress it. The word comes from the Greek piezein — to press. When you walk, run, or swing a golf club, the impact and load through your bones physically compresses the bone tissue. That compression generates a tiny electrical signal. It's not a metaphor — your bones are literally producing electricity with every step. This signal is what tells your body where to build more bone and where to remove it. No signal, no building.
But that was only part of the story. They also found that bone is a semiconductor — the same type of material used in computer chips and solar panels.
How this works: Bone is made of two main components. Collagen — the protein framework — is an N-type semiconductor (it carries negative charge). Apatite — the mineral crystal that gives bone its hardness — is a P-type semiconductor (it carries positive charge). Together, collagen and apatite form what engineers call a PN junction. This is the exact same structure used in solar panels, LEDs, and transistors.
Here is where it gets interesting. Bone is also photoelectric — light boosts the current flowing through it. So your skeleton is not just a frame that holds you upright. It is a light-sensitive semiconductor that generates and conducts electricity based on the mechanical load you put through it and the light environment you are in.
What is the photoelectric effect? (click to expand)
The photoelectric effect is simple: when light hits certain materials, it knocks electrons loose and creates an electrical current. This is how solar panels work — sunlight hits the panel, electrons start flowing, and you get electricity.
Your bone works the same way. When sunlight — especially red and infrared light — reaches your bones through your skin, it boosts the electrical current already flowing through the collagen-apatite semiconductor. More light, more current, stronger signal to build and maintain bone.
This is why being outdoors in natural light does more than just give you vitamin D. The light is literally powering the electrical system inside your skeleton. Someone who spends their days indoors under artificial light is running this system on a fraction of the power it was designed for — like a solar panel kept in the shade.
Negative electrical potential at a bone site signals the body to build more bone. Positive potential signals the body to dissolve bone. This is the actual mechanism behind Wolff's Law — the well-known principle that bone adapts to the loads placed on it. The "use it or lose it" rule is not just mechanical wear. It is electrical signalling.
Two things keep this system running. The first is mechanical load — every time you walk, exercise, or play golf, the weight and impact through your skeleton creates a piezoelectric signal. That works whether you're wearing shoes or not. It's the body's way of telling bone where to build and where to remodel.
The second is connection to the Earth. When you're barefoot on natural ground, the Earth's magnetic field interacts directly with the Schwann cells that control the piezoelectric system in your bones. This is the deeper signal — the one that orients and regulates the whole process. Shoes block this connection. Concrete blocks it. Bare skin on grass, soil, or sand opens it.
Astronauts lose bone in space because they lose both — no mechanical load in zero gravity, and no connection to the Earth's magnetic field. A 40-year-old cosmonaut gets osteoporosis in a little over a year. Remove the load and remove the field, and the signal to build disappears.
Water Inside You — The Real Conductor
If bone is the semiconductor and nerves carry the DC current, what is the medium that connects everything? The answer is water — but not water as you normally think of it.
Gilbert Ling, a biophysicist who spent his career challenging conventional cell biology, proved that the body does not run on ATP the way textbooks describe. The standard story says ATP is the "energy currency" — it powers everything directly. Ling showed that ATP's real job is structural: it unfolds proteins inside cells, exposing their polar groups. When those groups are exposed, water molecules bind to them in ordered layers. This creates what amounts to a semiconductor cable running through every cell.
The key detail: When water gets confined below 1.2 nanometres inside the cytoskeleton, it changes state. It becomes liquid crystalline. It is no longer ordinary water sloshing around. It is structured, ordered, and electrically active.
What is the cytoskeleton? (click to expand)
Every cell in your body has an internal scaffolding that gives it shape, structure, and the ability to move. This is the cytoskeleton — think of it like the steel frame inside a building. Without it, the cell would collapse into a blob.
But it does far more than hold shape. The cytoskeleton is made of tiny tubes — carbon nanotubes — nested inside each other from larger to smaller diameter. Water gets trapped inside these tubes, and because the tubes are so narrow, the water is forced into a structured, crystalline state. This is where semiconduction happens — inside these tubes, electrical signals can travel across the entire cell almost instantly.
The pattern repeats at every scale in the body: from the large tubes of your fascia and connective tissue, down to the microscopic tubes inside each individual cell. The whole body is essentially carbon nanotubes inside carbon nanotubes, all containing structured water, all conducting electricity.
From the macro scale of fascia and bone down to the micro scale inside individual cells, the pattern repeats: carbon nanotubes containing structured water. Your entire body is wired this way.
This structured water is the medium through which your body's electrical signals flow at almost zero energy cost. It is why a signal can travel from your brain to your foot in milliseconds — not because of chemical diffusion, which would take hours, but because of semiconduction through an ordered water network.
Bulk water vs structured water — what's the difference? (click to expand)
Bulk water is regular water — H2O — the kind you drink, swim in, and wash with. The molecules move freely and randomly. It conducts electricity poorly on its own.
Structured water — also called exclusion-zone (EZ) water — is different. When water gets close to a surface like collagen or the inside of a cell, it organises itself into ordered layers. Its molecular structure changes from H2O to H3O2. It carries a negative electrical charge and behaves like a liquid crystal — a biological battery.
This was discovered by Gerald Pollack at the University of Washington, who called it the fourth phase of water — not solid, not liquid, not gas, but something in between. His research showed that infrared light — especially from the sun — expands these structured water layers, increasing their stored charge.
Your fascia, your bones, your cells — all of them contain this structured water along their collagen fibres. More sunlight and more movement expand these layers. Less sunlight and less movement shrink them. When they shrink, your body's electrical system runs on less power.
When the water inside your cells is properly structured, your body is a high-performance electrical system. When it is disrupted — through dehydration, chemical contamination, or electromagnetic interference — the system degrades. Signals slow down, energy drops, and recovery stalls.
What Blocks the System — The Intel Clean Room Analogy
Intel manufactures computer chips in clean rooms — sealed environments where the air is filtered down to almost zero particles. Why? Because a single speck of dust or one stray molecule of the wrong substance can ruin a semiconductor. The chip will not work. One impurity in the wrong place and the electrical properties of the whole device collapse.
Your body's semiconductor system works the same way. It does not take much to degrade it.
Two major contaminants to understand:
Fluoride has a very high dielectric constant. In plain language, it blocks water's ability to act as a semiconductor. When fluoride accumulates in your tissues, it disrupts the structured water network that your cells depend on for energy production and signalling. The water is still there, but it can no longer do its electrical job. Think of it like pouring sand into a wire — the wire still exists, but current stops flowing.
Processed seed oils and trans fats (vegetable oils, canola, soybean, sunflower) block proton superconduction in your cell membranes. Cell membranes are where much of your body's electrical activity happens. When these damaged fats get built into your membranes instead of the natural fats your body was designed to use, proton flow across the membrane slows or stops. The membrane still looks intact under a microscope, but electrically it is compromised.
These are not dramatic poisons that knock you over. They are subtle contaminants that degrade performance over years. Like a semiconductor slowly losing its properties — the device still turns on, but it runs slower, hotter, and less reliably. One day it fails, and everyone calls it aging or disease. It was contamination all along.
Non-native EMF — the invisible contaminant: Becker measured the electromagnetic environment and found that the density of man-made radio waves around us is now 100 to 200 million times the natural level reaching us from the sun. His research showed that these non-native electromagnetic fields cause a chronic stress response in the body — elevated cortisol, weakened immune function, and disrupted healing currents. Bluetooth headphones and earbuds are particularly problematic because they emit pulsed microwave radiation directly next to your brain — the organ most sensitive to electromagnetic interference. The DC system that governs your consciousness, focus, and healing runs through your skull. Placing a transmitter against it is the last thing that system needs.
References on EMF research (click to expand)
Robert O. Becker, M.D. — The Body Electric (1985), Chapter 15: "Maxwell's Silver Hammer" — documents the 100-200 million-fold increase in electromagnetic background and its biological effects.
Robert O. Becker, M.D. — Cross Currents: The Perils of Electropollution, The Promise of Electromedicine (1990) — his follow-up book dedicated entirely to the dangers of non-native EMF and the suppressed potential of electromagnetic healing.
BioInitiative Report (2012, updated 2014) — compiled 1,800+ peer-reviewed studies on biological effects of electromagnetic fields at levels below current safety standards. Available at bioinitiative.org
Zeta Potential — What Happens to Your Blood
Your red blood cells carry a negative electrical charge on their outer surface. This charge is called zeta potential. It is one of the most important and least discussed numbers in your body.
Here is what it does: because every red blood cell carries the same negative charge, they repel each other — the same way two magnets with the same pole push apart. This repulsion keeps them separated, flowing freely through your blood vessels, including the tiny capillaries where they need to pass through single file.
When zeta potential drops, the charge weakens. Red blood cells lose their ability to repel each other. They start clumping together, stacking like coins. This is called rouleaux formation — and you can see it under a darkfield microscope.
Clumped blood means poor circulation, less oxygen reaching your tissues, slower recovery, brain fog, and fatigue. The blood is still pumping, but its carrying capacity is diminished because the cells are travelling in stacks instead of individually.
What Drops Zeta Potential
- Dehydration — less water, less charge
- EMF exposure — wireless radiation disturbs the charge on cell surfaces
- Processed food — damaged fats and excess sugar degrade cell membrane integrity
- Disconnection from the Earth — no replenishment of free electrons
What Restores It
Grounding. When you make direct contact with the Earth's surface, free electrons flow into your body. These electrons restore the negative charge on your red blood cells. The cells separate, blood flows freely again, oxygen delivery improves, and recovery accelerates.
This is not a theory about how grounding might work someday. It has been observed in real time under darkfield microscopy: blood drawn before grounding shows rouleaux formation. Blood drawn after 30-40 minutes of barefoot ground contact shows individual, well-separated red blood cells with strong zeta potential restored.
Inflammation — The Electron Connection
Inflammation is not a disease. It is your immune system's response to damage — an injury, an infection, overuse, or exposure to something the body perceives as a threat. The problem is not inflammation itself. The problem is when it does not switch off.
Here is what happens at the cellular level: when tissue is damaged, your immune system sends free radicals to the site. Free radicals are molecules that are missing an electron. They are aggressive — they steal electrons from surrounding cells to stabilise themselves. This is how the body breaks down damaged tissue. It is a necessary part of healing.
But once the job is done, those free radicals need to be neutralised. If they are not, they keep stripping electrons from healthy cells around the injury site. This is chronic inflammation — a fire that was lit for a purpose but never put out. It spreads. Joints ache. Recovery slows. Energy drops. The body stays in a low-grade state of damage.
What neutralises free radicals? Free electrons. An electron donated to a free radical stabilises it instantly — it stops stealing from your healthy cells. This is exactly what antioxidants do in food: they donate an electron. Vitamin C, vitamin E, polyphenols — they are all electron donors.
The Earth's surface is an unlimited supply of free electrons. When you stand barefoot on natural ground, electrons flow into your body through your skin. They reach the sites of inflammation and neutralise the free radicals directly — the same process as eating antioxidants, but through your feet instead of your mouth.
Grounding is not a replacement for good food. But it is the original antioxidant delivery system — the one your body evolved with. Shoes cut you off from it. Reconnecting to it does not cost anything, takes no time beyond what you already spend outside, and the effect on chronic inflammation is measurable.
The Earth's Magnetic Field — And What Happens Without It
The Earth generates a magnetic field and carries an electrical charge at its surface. The dominant frequency of this charge is the Schumann resonance — 7.83 Hz. This is not a random number. Your brain's alpha wave — the frequency of calm, alert focus — runs at the same rate. This is the state you want on a golf course: present, aware, not overthinking.
But the Earth's magnetic field does more than set a tempo for your brain. It interacts directly with the piezoelectric system in your bones through the Schwann cells that Becker mapped. The magnetic field provides an orientation signal — it tells your bone's semiconductor system which direction to build, how to remodel, and how to maintain its structure over time.
What happens when you remove that signal?
Cosmonaut Valeri Polyakov spent 437 days aboard the Mir space station — the longest continuous spaceflight in history. When he returned, he had lost approximately 80% of his bone density. A man in his prime, in peak physical condition before launch, came back with the skeleton of someone decades older.
NASA has documented the same pattern across all long-duration missions. A 40-year-old astronaut developed osteoporosis — a condition normally associated with aging — in just over a year. Not from lack of exercise. They exercise vigorously in space. It happened because they were disconnected from the Earth's magnetic field. The piezoelectric signal in their bones had no orientation, no baseline, no external reference. Without the field, the "build" signal disappeared and the "dissolve" signal took over.
The same pattern shows up on Earth. Clinicians working in quantum biology report seeing young people — 20s and 30s — with bone density loss that used to be exclusive to the elderly. The common thread: chronic indoor living, heavy EMF exposure from wireless devices, and almost no barefoot contact with natural ground. They are not in orbit, but electrically, they are disconnected from the same field.
Why Flying Degrades You
Air travel puts your body in one of the worst electrical environments available. Understanding why helps you take steps to recover faster afterward.
What Happens in a Plane
- You are disconnected from the Earth's magnetic field and surface charge — 10 kilometres up, you have no ground reference
- You are surrounded by the plane's electrical systems and dense electromagnetic fields from avionics, wiring, and hundreds of wireless devices
- Cosmic radiation increases significantly at cruising altitude — the atmosphere normally shields you from most of it
- Cabin air is pressurised, recycled, and extremely low humidity — dehydration accelerates
- Your zeta potential drops, blood clumps, circulation slows, and recovery stalls
This is why you feel terrible after a long flight — even if you slept well and stayed hydrated. The problem is not just jet lag or tiredness. Your body's electrical system has been running without a ground connection for hours, absorbing electromagnetic noise it cannot discharge, and losing structured water to the dry cabin air.
After landing, make it a priority to get barefoot on natural ground within 24 hours — wet grass, sand, soil, anything conductive. The sooner you reconnect, the better. If you wait too long, your body begins to adapt to the degraded state and locks the accumulated electrical noise in as a new baseline. The reset gets harder the longer you wait.
Grounding — The Return Home
Grounding is not about charging up. It is about discharging what modern life accumulates.
Every room you sit in has copper wiring in the walls carrying alternating current. Every device within a few metres of you — your phone, laptop, router, smart TV — emits electromagnetic fields. Your body is conductive. It picks up this electrical noise continuously, all day long. Rubber-soled shoes insulate you from the ground, which means you have no way to discharge that accumulated voltage. It just builds up.
Grounding — direct skin contact with the Earth's conductive surface — opens the circuit. The excess charge drains away, free electrons flow in, and your system returns to its natural electrical baseline.
What Conducts and What Does Not
- Rubber-soled shoes — block the connection completely. You are electrically insulated from the ground
- Leather-soled shoes — allow some conductivity, especially when the leather is moist or thin. Better than rubber, but not full contact
- Bare skin on natural ground — opens the full circuit. Feet, hands, any skin contact works
Best Surfaces
- Wet grass — excellent conductor, widely available
- Sand — especially near the waterline at a beach
- Volcanic or mineral-rich soil — high in conductive minerals
- Natural stone or rock — conductive, especially when damp
Why plants have no fat stores — and you do: A plant is grounded 24 hours a day, every day. Its roots are in the earth. Its leaves are in the sun. It is permanently connected to both electron sources — the ground below and the light above. It has no reason to store energy because it never runs a deficit. It is like a battery permanently plugged in.
Animals are different. We move. We move away from the equator, away from sunlight, away from the ground. We wear shoes. We go indoors. We fly. Every time we disconnect from the Earth and from natural light, we lose free electrons. And when you lose free electrons from your environment, your body stores fat to compensate — an energy reserve for when the electrical inputs are not there.
Fat storage is not a failure of willpower. It is your body's response to being electrically disconnected.
The complete circuit — grounding + sunlight: Your skin is a photoelectric solar cell. Sunlight hitting your skin generates charge. Grounding discharges what needs to leave and allows electrons to flow in. Together, they form the complete electrical circuit your body was designed to operate within. Separately, each is beneficial. Together, they are the full system.
This is why the most restorative thing you can do is also the simplest: stand barefoot on natural ground in morning or evening sunlight. No equipment, no supplements, no technology. Just your body making contact with the two inputs it evolved alongside — the Earth beneath you and the sun above you.
For thousands of generations, every human being slept on the ground, walked barefoot, and spent the day outdoors in natural light. Grounding was not a wellness practice — it was the default state. Rubber shoes, concrete buildings, and artificial lighting are the anomaly. Your body has not changed. The environment has. Grounding is not adding something new. It is returning to the electrical conditions your body expects.
Sources
Robert O. Becker, M.D. — The Body Electric: Electromagnetism and the Foundation of Life (1985). The foundational work on the body's DC current system, bone as a piezoelectric semiconductor, and the role of perineural cells in healing and regeneration.
Andrew Marino, Ph.D. — Going Somewhere: Truth About a Life in Science (2010). Becker's research colleague who documented the scientific and legal battles over electromagnetic field safety, and contributed to the research on biological effects of EMF exposure.
Gilbert Ling, Ph.D. — Association-Induction Hypothesis. Ling's lifelong research proving that ATP structures water inside cells, creating the semiconductor medium for biological signalling — challenging the conventional view that the body runs on chemistry alone.
Gerald Pollack, Ph.D. — The Fourth Phase of Water: Beyond Solid, Liquid, and Vapor (2013). University of Washington research on exclusion-zone (EZ) water — the structured, negatively charged water (H3O2) that forms along biological surfaces and is expanded by infrared light.
Schumann resonance research — the Earth's electromagnetic resonance at 7.83 Hz and its documented relationship to human alpha brainwave activity and circadian biology.
NASA and Roscosmos studies on bone density loss in space — including data from Valeri Polyakov's 437-day mission aboard Mir and long-duration ISS missions documenting accelerated bone resorption in the absence of the Earth's magnetic field.