NASA Pitches Gutsy Yet Practical Plan to Save the World From a Supervolcano

By Ivan Pentchoukov

Which threat is greater for humanity than comets and asteroids crashing from outer space?

According to one scientist from NASA’s Advisory Council on Planetary Defense, it’s a supervolcano sitting beneath one of the most beautiful places in America and the world—Yellowstone National Park.

The Yellowstone Volcano gets regular media buzz because it explodes every 600,000 years. The last time it exploded was about 600,000 years ago.

A swarm of earthquakes hit the Yellowstone region this year, raising further fears of an apocalyptic scenario. If the volcano explodes, a nuclear winter would follow and may cause humanity to go extinct through starvation.

An Indonesian villager gestures as Mount Sinabung volcano spews thick volcanic ash, in Karo, North Sumatra on July 8, 2017. (AFP/Getty Images)
An Indonesian villager gestures as Mount Sinabung volcano spews thick volcanic ash, in Karo, North Sumatra, on July 8, 2017. (AFP/Getty Images)

So instead of tinkering with ways to protect us from asteroids, NASA has been working on a way to save the world from Yellowstone.

Brian Wilcox of NASA’s Jet Propulsion Laboratory sent the details of the plan to the BBC, revealing to the world for the first time the agency’s ambitious yet convincingly practical plan.

Underneath Yellowstone park is a giant chamber of magma that heats up over time. The only way it is cooled is with water that seeps through the cracks in the earth. The water is heated up and returns to the surface, accounting for the geysers and hot springs throughout Yellowstone National Park.

Tourists walk beside a hot spring and the partially frozen Yellowstone Lake at the West Thumb Geyser Basin in the Yellowstone National Park, Wyoming on June 2, 2011. (MARK RALSTON/AFP/Getty Images)
Tourists beside a hot spring and the partially frozen Yellowstone Lake at the West Thumb Geyser Basin in Yellowstone National Park, Wyoming, on June 2, 2011. (Mark Ralston/AFP/Getty Images)

With that in mind, NASA started thinking of ways to cool down the beast. The first plan was to literally flood the plateau with water, but this was deemed impossible, since it would be too hard to convince politicians to use scarce water that way.

Instead, the team figured that drilling a 10 kilometer hole into the volcano and cycling water through it would do the job. The water would be pumped at high pressure, enter the crust at outdoor temperatures, get heated to 662 F inside, and return to the surface.

The plan’s most convincing aspect is that the hot water extracted from the depths of the volcano this way can be used to generate electricity at an extremely competitive price.

“Through drilling in this way, it could be used to create a geothermal plant, which generates electric power,” Wilcox said.

“You would have to give the geothermal companies incentives to drill somewhat deeper and use hotter water than they usually would, but you would pay back your initial investment, and get electricity, which can power the surrounding area for a period of potentially tens of thousands of years. And the long-term benefit is that you prevent a future supervolcano eruption, which would devastate humanity,” he added.

Tourists watch the
Tourists watch the ‘Old Faithful’ geyser, which erupts on average every 90 minutes in Yellowstone National Park, Wyoming, on June 1, 2011. (Mark RAalston/AFP/Getty Images)

The scientists also realized that drilling into a giant magma pit waiting to burst comes with its own dangers.

“The most important thing with this is to do no harm,” Wilcox said.

“If you drill into the top of the magma chamber and try and cool it from there, this would be very risky. This could make the cap over the magma chamber more brittle and prone to fracture. And you might trigger the release of harmful volatile gases in the magma at the top of the chamber, which would otherwise not be released,” he said.

The NASA plan instead calls for drilling into the side of the volcano and gathering heat from beneath the magma chamber.

“This way you’re preventing the heat coming up from below from ever reaching the top of the chamber, which is where the real threat arises,” Wilcox said.

View of the
‘Morning Glory’ hot spring with it’s unique colors caused by brown, orange, and yellow algae-like bacteria that thrive in the cooling water, turning the vivid aqua-blue to a murkier greenish brown, in Yellowstone National Park, Wyoming, on June 2, 2011. (Mark Ralston/AFP/Getty Images)

The project is in no way a quick fix. It would take hundreds if not thousands of years to cool the volcano to a point where it is no longer volatile. But that’s not stopping NASA’s enthusiasm.

“With a project like this, you’d start the process and the main ongoing benefit you’d see in everyday terms is this new supply of electrical power,” Wilcox said.

The idea can also be applied to the other 20 supervolcanos sprinkled around the earth, creating geothermal plants that can generate enough electricity to power the entire earth for thousands of years.

Hot lava flows down the Mount Sinabung volcano in the night in Karo, North Sumatra on July 30, 2017. (TIBTA PANGIN/AFP/Getty Images)
Hot lava flows down Mount Sinabung volcano at night in Karo, North Sumatra, on July 30, 2017. (Tibta Pangin/AFP/Getty Images)

“When people first considered the idea of defending the Earth from an asteroid impact, they reacted in a similar way to the supervolcano threat. People thought, ‘As puny as we are, how can humans possibly prevent an asteroid from hitting the Earth.’ Well, it turns out if you engineer something, which pushes very slightly for a very long time, you can make the asteroid miss the Earth,” Wilcox said.

“So the problem turns out to be easier than people think. In both cases it requires the scientific community to invest brain power and you have to start early,” he added. “But Yellowstone explodes roughly every 600,000 years, and it is about 600,000 years since it last exploded, which should cause us to sit up and take notice.”

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