Canadian scientists are tackling climate change, one air-sucking wall at a time.

Think of it as a giant, high-tech, carbon-dioxide-sucking Lego wall.

Do me a favor and stare at the air in front of you.

Yep — right in front of you. I know you can't see it, but you're staring at a lot of carbon dioxide.

Carbon dioxide naturally cycles between living things and the environment. Think back to your second grade photosynthesis lessons: photosynthesis happens when plants take carbon dioxide out of the air and convert it into oxygen. Then humans and animals breathe in that oxygen, breathing out carbon dioxide ... and on and on the cycle goes.

What's new to this equation, though, is the carbon dioxide we've artificially added to that natural cycle.

Carbon dioxide emissions increased by 7% between 1990 and 2013, according to the Environmental Protection Agency. Carbon that would have been released slowly or not at all is now being released rapidly, mostly because of industry and electricity. Traffic emissions alone — the carbon dioxide released by vehicles — account for almost 60% of those extra fumes.

Industry and factories have drastically increased carbon dioxide emissions, which can lead to global warming. Photo via Carbon Engineering.

But here's the issue: while carbon emissions have increased, our planet still absorbs the same amount of carbon dioxide, meaning that there's more in the environment than ever before (cue: global warming).

That's why a group of Canadian engineers are constructing a wall that sucks carbon dioxide right out of the air.

Yep, you read that right. Rather than letting that extra carbon dioxide hang out, these carbon engineers want to reduce the threat of climate change by absorbing air molecules and creating carbon-neutral fuels.

This carbon-dioxide-sucking wall (which doesn't exist yet) will do the carbon sucking work of millions of trees. Photo via Carbon Engineering.

These engineers built a prototype of the technology (they're calling it the "air contactor") in Squamish, Canada, an hour's drive north of Vancouver.

Basically, the wall will be made up of a stack of cubes, each of which will function in the same way. This means that you could make a wall whatever size you choose in whatever location you choose, simply by adding more "cubes" (think of it as a giant version of a high-tech Lego wall).

How does the prototype work? First, a fan in the air contactor sucks in air molecules, which are captured by carbon-absorbent surfaces. Then the carbon molecules are turned into a liquid that is eventually hardened into solid carbonate pellets (think: tiny white pebbles made of carbon). And, finally, high temperatures melt those pellets to release pure carbon dioxide, which can be used as fuel.

The most useful result of this technology will be carbon-neutral fuels.

Right now, scientists have built only one prototype unit, which functions in three steps. Photo via Carbon Engineering.

Right now, Carbon Engineering CEO Adrian Corless says that the carbon produced by this technology represents a negative emission. "You've taken it out of the atmosphere," he told Upworthy, "and that's cool because it could restore balance from a climate point of view."

And, eventually, you might be able to use the carbon-neutral fuel (produced by the wall) in your vehicle, reducing carbon emissions while keeping the carbon cycle balanced, too.

For now, this is a very cool idea still in its infancy, Corless says.

They have a prototype, but the next step will be to build a pilot plant that produces fuel (one unit can produce 40 million liters of fuel per year!). Corless says that, eventually, he'd like to see a wall of these prototype units erected in Squamish, too.

In the long term, these walls could also be installed anywhere folks have space — in extra fields or even in city parking lots — solving both the carbon problem and the fuel problem for our country.

Are you sold? Check out a video from the engineers themselves to learn more about the prototype and their plans for the future of carbon emissions:

To learn more about this project, visit the the Carbon Engineering website.