Okay. Atoms, you can't see them.

Two nanometers is 20 atoms in thickness.

And those properties of softness and hardness and darkness and clearness do not reside in the carbon atoms they reside in the interconnections between the carbon atoms, or at least arise because of the interconnections between the carbon atoms.

What is the wall mostly made of? Atoms.

It's not hard it's just three oxygen atoms.

And the mountains shall be crumbled to atoms,

And the mountains shall be crumbled to atoms,

And now simple atoms appear of hydrogen and helium.

In solids, atoms are stuck together, they can't move.

The helium atoms had to be very far apart.

If you dress it up with atoms, hydrogen atoms that s what it looks like when you have it on your computer but actually it s sort of more like this, in the sense that the atoms have a certain sphere that you cannot penetrate. They repel.

You've got the hydrogen atoms are in the wrong place.

He started walking. What am I mostly made of? Atoms.

This has six carbon atoms, so hexa, hexene 1 ol.

Can we identify any stereocenters or chiral carbons or chiral atoms?

So the first question is do we have any chiral atoms?

We depend on stars to make the atoms we're made of.

We're flying through 2,000 lattice of atoms oxygen, hydrogen and zinc.

It's four blue zinc atoms bonding with one white hydrogen atom.

In intergalactic space, there's so little energy that atoms can't combine.

Who knows, maybe one of your atoms was once Napoleon's knee.

A water molecule has two hydrogen atoms and one oxygen atom.

Nay, but when the earth is ground to atoms, grinding, grinding,

Nay, but when the earth is ground to atoms, grinding, grinding,

So stereoisomers mean that we have the same constituents, the same atoms.

Stars are fueled by how the nuclei in those atoms react together.

And the most complex things are ourselves, midway between atoms and stars.

We also all know that atoms are not the end of the story.

The sound that you're hearing are the actual emission spectrums of these atoms.

The first one was that when helium atoms touch each other, they repel.

It turns out that in many cases atoms are much more mobile than bits.

And now, this is a picture of atoms in the Sun's atmosphere absorbing light.

The everyday world is determined by atoms, how they stick together to make molecules.

So deep inside we all know, you go sufficiently far down, you have atoms.

This is allowing them to find the bonding nodes in any lattice of atoms.

And then there were kind of large spaces in the hollows between the atoms.

It would be all atoms pulsating in unison, emitting light of one color, one frequency.

It consisted of huge clouds of hydrogen and helium atoms, and they have no structure.

Well, in gasses, atoms move past each other so fast that they can't hitch up.

Every time I breathe in, I'm breathing in a million billion billion atoms of oxygen.

The only way it worked is when the helium atoms were very, very far apart.

And unfortunately, the helium atoms in liquid helium are right on top of each other.

And so the fact that atoms, when you heat them up, only emit light at very specific colors, was one of the key drivers that led to the development of the quantum theory, the theory of the structure of atoms.

Four atoms of hydrogen, the four points of the tetrahedron, which means the little carbon atom.

So where you get slightly denser areas, gravity starts compacting clouds of hydrogen and helium atoms.