Crosspatch overlay?

And this pressure forces the seawater through a membrane.

So on this membrane you have these proteins and these complexes of proteins and molecules that span this membrane.

So you literally have these proteins that are sitting across the membrane.

It is involved in the transfer of amino acids across the cellular membrane and leukotriene metabolism.

Now that energy is used to pump protons across the cristae across the inner membrane of the mitochondria.

So while it is true that the normal stoichiometry of the pump does have a slight negative influence on the membrane potential that's just the membrane potential, the voltage across the membrane the imbalance in the pump stoichiometry is not the main reason for the large negative membrane potential of the cell.

The membrane is translucent.

And in that case it was in the mitochondria, here the membrane is the thylakoid membrane.

That's its outer membrane.

That's the membrane.

And then you have that little basement membrane like a thin line of membrane called the basement membrane

That membrane's called a phagosome.

I'm going to zoom in on its membrane.

And this membrane is especially important.

And it starts in the ventral tegmental area.

That's its outer membrane.

Actually, what happens is that a very intricate structure appears.

literally snared the vesicles to this membrane.

And you reverse the pressure on your membrane once you've cooked it.

So we're zoomed in on the thylakoid membrane.

Delivery The expulsion stage

And so basically what you're going to have is this membrane. So we've got a membrane

It changes the charge or the voltage gradient across the membrane and if the combined effects of the change in the voltage gradient is just enough at the axon hillock to meet that threshold, then the sodium channels over here will open up, sodium floods in, and then we have the situation where the voltage becomes very positive.

The membrane working with the chorion is the allantois.

On the side here, this is temporal cortex.

The apical membrane that faces the lumen, it's porous to calcium.

So this is the thylakoid membrane right there.

And lyses just means that the cell's membrane just disappears.

If there's less concentration here than there, the oxygen will diffuse across the membrane and there's less inside the plasma because the hemoglobin is sucking it all up like a sponge.

And then this side is normally referred to the basal lateral side, or this membrane, if you view this as a membrane, this would be the basolateral membrane.

Solutes able to freely cross the membrane do not affect tonicity because they will always be in equal concentrations on both sides of the membrane.

Think of this waterproof membrane as the in and out doors of the egg.

And then its inner membrane, or its cristae, would look like that.

This outer membrane, I can do it up here. And I'll just color it in. You don't even have to see the outside of the outer membrane.

It has an outer membrane and an inner membrane just like that.

It penetrates the mucosa.

The bacterial outer membrane is found in gram negative bacteria.

This is another layer of protein, just like the basement membrane, but different composition of proteins.

This little convoluted inner membrane, let me give it a label.

The dispersants as I was saying their job is to break down the lipid membrane.

lipid membranes in our body, starting with cells of the skin, the cells of organs.

And then this bubbling, this membrane bubbling, is the hallmark of apoptosis in this cell.

And then peritonitis set in and he went like that.

These protons, as well as additional protons pumped across the thylakoid membrane coupled with the electron transfer chain, form a proton gradient across the membrane that drives photophosphorylation and thus the generation of chemical energy in the form of adenosine triphosphate (ATP).