It's called dark matter.

So dark matter will stay.

One of them you heard about dark matter, dark energy.

We call that stuff dark matter.

Dark matter now placed against a horizon.

Galaxies are where the dark matter is.

Again, this is dark matter. If you could see dark matter in color, this is what it would

So, in quantum mechanics, of course, you have dark energy and dark matter.

Spectrum. The role of dark matter is essential.

The Plasma possesses Dark Matter too, which means, we have within the Plasma, his main constituant, which is Antimatter, the Matter and the Dark Matter.

It should be called invisible matter, but the dark matter we've made visible.

So therefore, there has to be some dark matter.

Antimatter, and Dark Matter, and all other factors together.

We have well motivated candidates for the dark matter.

And, among other things, they're looking for dark matter.

And that is the discovery of dark matter by

The Matter we speak about is what the Fundamental Matters, which are the Matter, Antimatter and Dark Matter.

Note, this is not stars. This is dark matter. If you, if you could see dark matter, this is what you would see.

Physicists know the rest of the universe, 95 of it, as the dark universe, made of dark matter and dark energy.

In the book, we explain what the Dark Matter is, and what Dark Matters are, and how Dark Matters are created.

The original discovery of the dark matter was due to

little dark matter halos that yet have to merge together.

Dark matter fluctuations can grow before baryons can actually follow.

But the dominant component, of course, is the dark matter.

There are also models that connect dark energy and dark matter and so on and so forth.

So clusters must be dominated by huge amounts of dark matter.

So for now, let's turn to the evidence for dark matter.

So in terms of the big questions what is dark matter?

They're already imprinted in the dark matter. The baryons soon follow.

The observations show that cold dark matter, composed of massive particles.

Going way out, dark matter conforms to the same mycelial archetype.

But super nova shocks would not effect dark matter at all.

And therefore you expect them to be more dark matter dominated.

You can see that, first, dark matter condenses in smaller clumps.

But recall the presence of the dark matter is what helps.

Now, let's look at the case of the cold dark matter.

It looks as if dark energy makes up about 68 of the universe and dark matter about 27 ,

And you see how the dark matter lumps up, and the ordinary matter just trails along behind.

Today, scientists believe that the answer lies in a previously unknown kind of matter, called dark matter.

And not surprisingly, cold dark matter model seems to work the best or I should say cold dark matter model involving cosmological constant, the Lambda CVM model.

Since the dark matter dominates gravitationally, by studying what happens even with just visible components, we can understand a little more about how dark matter is distributed.

What's significant is not simply the light and dark surrounds that matter.

So, we may discover dark matter particles in underground laboratories really soon.

Do we have anything for dark matter? And the answer is yes.

Remember, variants falling to the potential wells defined by the dark matter.