Can you survive inside a tornado? This scientist did by accident—he’s lucky to be alive
March 28, 2026
5 min read
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Can you survive inside a tornado? This scientist did by accident—he’s lucky to be alive
Atmospheric scientist Perry Samson was doing fieldwork when he was unexpectedly caught inside a tornado—making him one of the few such people who have lived to tell the tale
By Perry Samson & The Conversation US
A tornado seen in Nebraska in 2011.
Mike Hollingshead/Getty Images
The following essay is reprinted with permission from The Conversation, an online publication covering the latest research.
Can a person survive inside a tornado? – Sophia, age 14, Greencastle, Indiana
I have seen the center of a monster. Most people describe the sound of a tornado as like a freight train, but up close, it’s more like a thousand screaming jet engines. I am one of the few people on Earth who has driven into a tornado and lived to tell the tale.
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While it might sound like a scene from a Hollywood blockbuster involving a high-tech armored truck, my experience was much more dangerous and terrifying.
I am an atmospheric scientist who studies tornadoes, but I am only alive today because of split-second decisions and a massive amount of dumb luck. Believe me, I do not want to ever be in that situation again.
The day the sky broke
It started in northwest Kansas, where I was studying supercell thunderstorms – the kind that produce tornadoes – with a team of students from the University of Michigan.
We were positioned under a thunderstorm that was so dark, we had to turn on our vehicles’ headlights in the middle of the day. Suddenly, a tornado formed and began charging directly toward us.
The students were in other vehicles and got away, but my car was quickly swallowed by a cloud of flying debris so thick that I couldn’t even see my own hood.
With my options disappearing, I made a desperate move: I turned the car directly into the wind, hoping the vehicle’s aerodynamics would keep us pinned to the ground rather than being flipped like a toy.
The physics of fear
When you’re inside a tornado’s vortex, your body experiences things the news cameras can’t capture:
- The pressure change: A tornado is a localized area of rapidly changing pressure. Your ears don’t just “pop” – they ache, as if your head is being squeezed by giant hands.
- The solid wind: We measured wind speeds of almost 150 mph (241 kph) nearby, but inside the vortex, they were likely much higher. At those speeds, air hits you with the force of a solid object.
- The soup of darkness: In movies, the “eye” is a clear space. In reality, it’s a debris ball – a brownish-black soup of pulverized soil, trees and buildings. It was so dark that my camera couldn’t even register a picture.
As debris slammed into my windshield, I was terrified I’d be crushed by flying materials – tornadoes can pick up fences, wood and metal from buildings, tree branches, even cows. Textbook advice says to get into a ditch so you’re lying flat and might be more protected from flying debris. But the wind was so violent, I couldn’t even open the car door. I just stayed low and prayed.
The making of a monster
How does this severe of a storm even happen? It takes a perfect, violent recipe of atmospheric ingredients:
- Fuel: A tornado needs warm, muggy air (water vapor) near the ground with dry air above it. This creates the potential for rising air, but only if the atmosphere is unstable enough to overcome “the cap.”
- The cap: A thin “inversion” layer of stable air acts like a lid on that warm moist air, bottling it up until the moist air punches through.
- The dry line: The dry line is where warm, moist air from the Gulf of Mexico and dry air from the west meet. The advancing hot, dry air is actually heavier than muggy air, and this dry air pushes the moist air upward, disrupting the cap.
- Wind shear: Surface winds from the south and upper winds from the west create a horizontal rolling motion in the atmosphere. When the air is pushed upward, that rotation becomes vertical, creating what’s known as a mesocyclone.
- The jet stream: About 5 to 7 miles (8 to 11 kilometers) up, the jet stream is a fast-moving river of air. Disturbances within it can create areas that pull air upward from below and lower surface pressure.
Together, these ingredients can create the powerful, rotating vortex that you know as a tornado.
These storms can have winds up to 300 mph (482 kph) and leave a long path of destruction, sometimes more than a mile (1.6 kilometers) wide. They can stay on the