This is not an electron micrograph this is just a regular photomicrograph.

We take a microscope slide.

Here's an actual micrograph of the molecule we built using these processes, actually just using yeast mechanisms with the right design of the pieces we put them in yeast puts them together automatically.

And that electron disappears.

So what are microalgae?

I used a microscopic shard of diamond to actually carve the actual base.

It's really quite amazing. You have microshells there.

And these are actually microscopic you need a microscope to see these.

likely to find an electron.

And carbon has lost the electron.

The electron gets excited by photons.

So, an electron has negative charge.

We have that magenta electron right over there.

I'll only draw the unpaired electron.

So after that electron keeps entering lower and lower energy states, the final electron acceptor is NADP plus.

Or you can also view them as electron acceptors along the way.

And now the oxygen can hog that electron.

If one guy is kind of hogging the electron more, for the sake of oxidation states, we're going to assume that he took the electron.

I floated through the world of plankton, searching for tiny algae to eat.

So here, carbon got to hog the electron.

So if you have it right here, Lewis base is an electron donor.

And so if it's the electron donor, what is it?

And then what the effect of a magnetic field is on an electron.

Or not an electron, on a moving charge.

This is taken through a fiber optics microscope. It's down inside the nest.

After this happens, the electron is emitted from the nucleus into the electron cloud.

And then from there we proceed to the electron transport chain.

And it actually turns out that even one electron is still a magnetic dipole.

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There's a blade here that's going to cut across a section of the tissue and transfer it to a microscope slide.

They've been here for billions of years, and what they are are single celled microscopic organisms.

Eukaryotic are going to be things you think of as alive that aren't microscopic.

And then that electron essentially gets passed from one guy to the next, that begs the question, what can we use to replace that electron?

This means that this electron is just going to go back to this chlorine, and this other magenta electron is going to go back to the right chlorine, so we can draw it like that.

And so this function of where an electron is, this is called an orbital.

The electron moves outside of its normal, predictable electron cloud five percent of the time.

This hydrochloric acid is donating a proton to this water molecule, right?

You're actually hearing and seeing the electron flow with the lines.

But these are actually the inputs in the electron transport chain.

Every NADH in the electron transport chain produces three ATPs.

This hydrogen can pretend like he has this electron.

Now every time an electron goes from a higher energy state to a lower energy state and that's what it's doing over the course of this electron transport chain it's releasing energy.

And then if that hydrogen gets transferred to an oxygen, along with the electron, the carbon will lose the hydrogen atom, but it really lost the electron that it was hogging before.

In the photoemission process, if an electron within some material absorbs the energy of one photon and acquires more energy than the work function (the electron binding energy) of the material, it is ejected.

And it's the same thing, because when you gain a hydrogen atom, including its electron, since hydrogen is not too electronegative, you get to hog its electron.