10 Fascinating Facts About the History of Electricity: That Nobody Taught You

Proteck'd EMF ApparelHealth & EMF Specialists

Published June 28, 2026·14 min read

Did Ancient Civilizations Really Use Electricity?

Sort of. They didn't have power grids, but they absolutely encountered electrical phenomena and put them to use. The most well-documented example comes from the Roman physician Scribonius Largus, who around 46 AD wrote detailed instructions for using the torpedo fish (an electric ray) to treat gout and chronic headaches ^[1]. Patients would stand on a live fish and let the shock travel through their body. Sounds brutal, but it's arguably the earliest form of electrotherapy.

Then there's the famous Baghdad Battery. In 1938, German archaeologist Wilhelm König discovered a set of clay jars near Baghdad, Iraq. These jars date to roughly 250 BC and contained copper cylinders and iron rods that could theoretically produce a small electrical voltage when filled with an acidic liquid like vinegar. Were they actually used as batteries? Archaeologists still argue about it. But the possibility alone is remarkable.

What's clear is that humans have been encountering and reacting to electrical energy for millennia, long before anyone had a word for it. Ancient Egyptians documented the shocks from electric catfish in the Nile around 2750 BC. These weren't random curiosities. People noticed that these shocks had physical effects on the body, which brings us to one of the most overlooked chapters in the story of electricity: the body's own electrical system.

If you're curious about the invisible forces that surround and run through us, you'll want to read 7 Fascinating Facts About The Invisible Forces Around Us: You Won't Believe Are True. It connects some of these same dots in a way that really makes you think.

How Much Electricity Does the Human Body Actually Produce?

More than you'd guess. At rest, the average human body generates roughly 100 watts of electrical power. Your brain alone accounts for about 12 to 25 watts of that, which is roughly the energy consumed by a dim LED bulb ^[2]. Every thought, every sensation, every muscle contraction is driven by tiny electrical impulses racing along your neurons at speeds up to 270 miles per hour.

These signals work through something called the action potential. It's a brief reversal of electrical charge across a nerve cell's membrane. Sodium and potassium ions shuttle back and forth through tiny channels, creating a wave of electrical activity that travels from one neuron to the next. Same basic principle behind a wire carrying current, just built from biology instead of copper.

Your heart is the most electrically dramatic organ. Its sinoatrial node fires an electrical impulse roughly 100,000 times per day, coordinating the contractions that keep blood flowing ^[2]. When doctors run an ECG, they're literally reading the electrical story your heart tells with every beat. These fascinating body electricity facts aren't abstract science. They're the reason you're alive right now.

Here's the thing: the body's internal electrical system is sensitive to external electromagnetic fields, too. That's part of why researchers at institutions like the National Institute of Environmental Health Sciences (NIEHS) continue to study how ambient EMF exposure might interact with bioelectrical processes. If you want to understand how companies are designing clothing to address this, check out Proteck'd EMF Protection, which uses conductive fabrics to shield against everyday electromagnetic radiation.

Electricity isn't something humans created. It's something we stumbled into, fought over, and slowly learned to channel. The same electrical principles that power your nervous system also power the device you're reading this on.

What Really Happened with Benjamin Franklin's Kite Experiment?

You know the story. Benjamin Franklin flew a kite in a thunderstorm in June 1752 and proved that lightning was electrical. But the version most of us learned in school glosses over some important details.

For starters, Franklin probably wasn't struck by lightning during the experiment. What he actually demonstrated was that the kite's key collected ambient electrical charge from the storm, causing sparks to jump when he brought his knuckle close to it. The distinction matters because the experiment was genuinely dangerous. Georg Wilhelm Richmann, a Swedish physicist working in St. Petersburg, Russia, attempted a similar experiment in 1753 and was killed by the electrical discharge. Franklin himself acknowledged the risk. He conducted the experiment from inside a shed, keeping himself dry and grounded, which likely saved his life.

Franklin's real contribution wasn't just proving that lightning was electricity. He invented the lightning rod, a practical device that has saved countless buildings and lives since the 1750s. According to the Franklin Institute in Philadelphia, his design is still the conceptual basis for lightning protection systems used worldwide today. Franklin also introduced much of the vocabulary we still use: "battery," "conductor," "charge," "positive," and "negative" are all terms he coined or popularized.

The kite experiment sits at a turning point in the history of electrical power. Before Franklin, electricity was a parlor trick, something you generated by rubbing amber. After Franklin, it was a force of nature that could be studied, measured, and eventually harnessed. For more on the inventors who pushed that story forward, take a look at Nikola Tesla: Fascinating Facts.

How Did Luigi Galvani Discover Bioelectricity by Accident?

In 1780, Italian physician Luigi Galvani was dissecting a frog in his lab at the University of Bologna when something unexpected happened. A metal scalpel touched the frog's sciatic nerve while a nearby electrostatic machine was running, and the dead frog's leg kicked. Just like that. Galvani repeated the experiment and concluded that animals contained an inherent "animal electricity," a force generated within living tissue itself.

He wasn't entirely right. But he wasn't entirely wrong either. What Galvani had stumbled onto was the bioelectrical nature of the nervous system. His contemporary, Alessandro Volta, disagreed with the "animal electricity" theory and argued that the electrical current came from the contact between two different metals in the presence of moisture. That dispute led Volta to invent the voltaic pile in 1800, the world's first true battery.

The Galvani-Volta debate is one of the most productive arguments in scientific history. It gave us both the field of bioelectricity and the first reliable source of continuous electrical current. And it inspired Mary Shelley, who attended public demonstrations of Galvani's experiments, to write "Frankenstein" in 1818. The novel's premise, that electricity could animate dead tissue, came directly from watching frog legs twitch on a laboratory table.

These body electricity facts remind us that the line between biology and physics is thinner than we usually think. The same electrical principles that power your nervous system also power the device you're reading this on. That overlap is exactly what makes the history of how electricity was discovered so compelling.

What Was the War of Currents and Why Should You Care?

In the late 1880s, two of the most brilliant minds in the history of electrical power went to war. Thomas Edison championed direct current (DC), which flowed in one direction and was already powering parts of Manhattan from his Pearl Street Station, opened September 4, 1882. Nikola Tesla, backed by industrialist George Westinghouse, argued that alternating current (AC) was superior because it could be transmitted over much longer distances with far less energy loss.

Edison fought dirty. He publicly electrocuted animals using AC power to demonstrate its dangers, including a now-infamous 1903 incident involving an elephant named Topsy at Coney Island. He lobbied for AC to be used in the electric chair, hoping the public would associate Tesla's system with death. It was one of the first major disinformation campaigns in American industrial history.

Tesla and Westinghouse won. The 1893 World's Columbian Exposition in Chicago was lit entirely by AC power, dazzling 27 million visitors and proving the technology could work at massive scale. Shortly after, AC was used to harness Niagara Falls for power generation in 1896, cementing alternating current as the standard for electrical grids worldwide.

Why does this matter today? Because the infrastructure Tesla championed is still the backbone of how electricity reaches your home. Every time you plug something in, you're using AC power. The fact that you can do it safely, from hundreds of miles away from a power plant, is Tesla's legacy. For a deeper look at the man himself, don't miss Nikola Tesla: Fascinating Facts.

Can Lightning Really Be Five Times Hotter Than the Sun?

Yes. A single bolt of lightning can reach temperatures of approximately 30,000 Kelvin (about 53,540 degrees Fahrenheit). The surface of the sun sits at roughly 5,778 Kelvin. So lightning is indeed about five times hotter, though only for a fraction of a second. According to the National Oceanic and Atmospheric Administration (NOAA), a typical lightning bolt carries about 300 million volts and 30,000 amps of electrical current.

That immense energy is what causes the rapid expansion of air we hear as thunder. The light and heat happen almost simultaneously, but because light travels faster than sound, you see the flash before you hear the boom. Every second, approximately 100 lightning bolts strike the Earth's surface. That adds up to roughly 8.6 million strikes per day worldwide.

Lightning was one of humanity's first encounters with raw electrical power, and it shaped the early history of how electricity was discovered. Franklin's kite experiment, Richmann's fatal attempt, and centuries of mythological explanations all stem from trying to make sense of this terrifying, beautiful phenomenon. It's nature's own reminder that electricity isn't something we invented. We just learned to borrow it.

How Did the First Power Plant Change Everything?

On September 4, 1882, Thomas Edison flipped a switch at the Pearl Street Station in lower Manhattan, and 85 customers received electrical current for the first time from a centralized power plant. Eighty-five customers. It doesn't sound like much. But that moment marked the beginning of the electrical grid as we know it, and it changed civilization permanently.

Pearl Street Station used six dynamo generators, each nicknamed "Jumbo" after the famous circus elephant, and powered roughly 400 lamps within a one-square-mile area. Edison's system ran on direct current at 110 volts. Within a year, the station was serving over 500 customers. The concept spread fast. By 1890, hundreds of power stations had been built across the United States and Europe.

What most people don't realize is how quickly electricity reshaped daily life once it became available. Factories could run at night. Streets became safer with electric lighting. Homes could be cooled, heated, and illuminated without fire. According to the U.S. Energy Information Administration (EIA), by 1930 roughly 70% of American homes had electricity. By 1960, that number was effectively 100%.

Today we're surrounded by more electromagnetic energy than Edison could have imagined. If you've ever wondered about the effects of living inside that electrical environment, Learn About EMF Protection offers a straightforward breakdown. And for tech-savvy readers who enjoy the weird side of modern innovation, check out 12 Fascinating Tech Facts That Sound Too Weird to Be True: The Complete List.

Do Electric Eels Actually Produce Enough Power to Stun a Human?

Absolutely. The electric eel (Electrophorus electricus) can discharge up to 860 volts, according to research published by Kenneth Catania at Vanderbilt University in 2019 ^[3]. That's enough to cause severe muscle contractions, pain, and temporary paralysis in a full-grown human. In rare cases, the shock can cause drowning if the person is in water when it hits.

Electric eels generate their charge using specialized cells called electrocytes. These are modified muscle cells stacked in series like batteries. An adult eel has roughly 6,000 of them, and when they fire simultaneously, they produce a powerful burst of current. It's one of nature's most impressive examples of bioelectricity, and scientists at institutions like the Smithsonian's National Museum of Natural History have studied them for over a century.

What's really interesting is that these animals use electricity the same way your nervous system does, just scaled up dramatically. The electrocyte works on the same sodium-potassium ion exchange that drives human nerve impulses. The electric eel is doing what your neurons do, only at 860 volts instead of 0.07 volts.

These kinds of fascinating body electricity facts blur the line between "nature" and "technology" in a way I find deeply interesting. We often talk about electricity as something manufactured, something that comes from power plants and wall outlets. But the biological world has been using electrical current for hundreds of millions of years longer than we have. Speaking of the overlap between biology and invisible energy, How Plants Communicate: Fascinating Facts explores a similarly surprising topic.

Why Does Your Body Conduct Electricity So Well?

Water. You're roughly 60% water by mass, according to the U.S. Geological Survey, and that water is full of dissolved ions, primarily sodium, potassium, calcium, and chloride. These ions are electrically charged particles, and they move freely through your body's fluids, making you an effective conductor of electrical current ^[2].

This is why getting electrocuted is so dangerous. When external current enters the body, it follows the path of least resistance through these ion-rich fluids, potentially disrupting the electrical signals your heart and brain depend on. The Centers for Disease Control and Prevention (CDC) reports that approximately 1,000 people die from electrical injuries in the United States each year, and many more suffer non-fatal shocks that cause burns, nerve damage, or cardiac arrhythmias ^[4].

Your skin provides some resistance when dry, typically around 100,000 ohms. But wet skin drops that resistance to as low as 1,000 ohms. That's why electrical accidents are far more dangerous in damp conditions. Basic physics, real everyday consequences.

It also has implications for how your body interacts with ambient electromagnetic fields from devices like phones, routers, and smart meters. Your body's conductivity means it doesn't just passively exist near these fields. It interacts with them. That's one reason products in the Faraday Collection from Proteck'd are designed with conductive silver-infused fabrics that can redirect electromagnetic radiation away from the body. Think of it like a wearable version of the Faraday cage concept that Michael Faraday invented back in 1836.

What's the Future of Electricity and the Human Body?

We're entering an era where the relationship between the human body and electrical energy is more intimate than ever. Researchers at MIT and Stanford are developing bioelectronic devices that interface directly with the nervous system, using tiny electrical impulses to treat conditions from chronic pain to depression. The U.S. Food and Drug Administration (FDA) has already approved several neurostimulation devices, including deep brain stimulators for Parkinson's disease that deliver precise electrical pulses to targeted brain regions.

At the same time, our exposure to ambient electromagnetic fields keeps growing. The World Health Organization (WHO) estimates that global electricity consumption has grown by approximately 3% per year over the last several decades, and wireless device usage has exploded alongside it. Whether that level of exposure poses health risks is still being studied, but the question itself underscores something important: electricity isn't just a utility. It's an environment we live inside.

Understanding fascinating body electricity facts isn't just trivia. It's practical knowledge for making informed decisions about your health and environment. When you know that your body runs on electrical impulses measurable in millivolts, it makes sense to at least consider what happens when those signals meet the electromagnetic fields generated by the technology all around us.

That awareness is exactly what drives companies like Proteck'd EMF Protection to develop wearable solutions using Faraday cage principles. Whether you're a biohacker, a concerned parent, or just someone who likes knowing how things work, understanding electricity, both the kind in the walls and the kind in your veins, puts you ahead of most people. And honestly? Your science teacher would probably be impressed.

About the Author

Proteck'd EMF Apparel

Health & EMF Specialists

The Proteck'd team covers EMF protection, silver-fiber apparel, and practical ways to reduce everyday radiation exposure. Every piece Proteck'd ships is designed, tested, and worn by the people who build it.