Posted August 14, 2019 06:23:37 It’s a chemical compound that makes up 99.9999% of the water in the world, but it’s also been used as a building block in electronics, plastics, solar cells, and solar cells for years.

Now, researchers from Stanford and MIT are trying to figure out how the atoms in these materials are made.

The idea of how these materials work is a long way from being solved.

“We’ve known for some time that these materials exist in nature, but we’ve never had a good understanding of how they’re made,” says Eric A. Smith, a professor of materials science and engineering at Stanford.

“Our goal is to give people the tools they need to understand what these materials really are.”

Smith and his colleagues are the first to use a new kind of electron microscope to explore the chemistry of chlorine atoms.

By analyzing the electrons inside the atoms, they were able to figure how the material formed and what it did to electrons.

The scientists are also the first group to observe how the electrons change shape as they move through the metal.

This electron microscope image shows the structure of chlorine and other metal ions.

For this new study, Smith and his team used a special type of electron microscopy to analyze the structure and structure of two materials that are both chlorine atoms: chlorine dioxide and chlorate.

The researchers have also measured the changes in the shape of these ions as they moved through the materials.

The chlorine dioxide molecules are made of two carbon atoms and two oxygen atoms.

The chlorate molecules are comprised of two oxygen and two carbon.

The changes in shape of the ions show that these two materials are chemically very similar.

As they move around, the chlorine atoms get more and more disordered, the researchers found.

They change shape by emitting electrons, which can also be seen as light.

“The electrons are moving through the molecules, so that’s what makes the molecules disordered,” Smith says.

“It’s the disordered state that causes the change in shape.”

As the researchers saw, the change is greatest at a specific point in the metal’s structure.

When the chlorine ions move through a particular region, the atoms form an atom-shaped structure, which is what makes chlorine dioxide react with water.

The change in structure occurs at a certain point, when the chlorine atom is moving through a region called a chlorate atom.

When the chlorine ion moves through the chlorate atoms, the chlorates are disordered and the ions become more disorganized.

This results in a different chemical reaction: The chlorine ions get more energy, and they get more ionized.

But what makes this reaction different is that it’s a reaction that takes place at the exact right point.

The chemistry of the reaction, Smith says, is like a game of “whack-a-mole.”

“You can get one chemical reaction going and get a different reaction going, but the whole process takes place in the same spot,” he says.

Smith says he and his group think that the process they observed is “a quantum version of a ‘Whack-A-Mole’ game.”

This game involves a number of different chemicals, including chlorine, oxygen, and carbon, and their reaction is very similar to what happens when a person plays Whack-You-Up.

It’s possible to create molecules that react with the chemicals at the right spot.

But they have to be in the right place in a very specific way, Smith explains.

He thinks the process of making chlorine and chlorates could help us to better understand how organic molecules are formed.

While this new understanding is exciting, Smith cautions that it is still just a theory.

“The main question right now is how the chemistry is generated in the molecule, how it evolves, and how it interacts with the environment,” he explains.

“But the fundamental questions remain unanswered.”

Explore further: Researchers use chemical chemistry to discover new chemical structure of water source Newsweek article