Oxygenated blood.

So it has oxygenated and we could write de oxygenated.

De oxygenated blood goes to the lungs to become oxygenated.

They're de oxygenated.

It's de oxygenated blood.

Now we have oxygenated blood.

It's electromagnetized, oxygenated, dechromated white.

The Earth possesses a thick, oxygenated atmosphere.

So let me draw those pulmonary capillaries and so when they are de oxygenated so they come here to be oxygenated. So when they're de oxygenated, they might look a little purplish.

Once it gets oxygenated, it's ready to go back to the heart. It's a pulmonary vein and it is oxygenated.

It gets oxygenated and now it's a pulmonary vein.

It's the pulmonary artery and it is de oxygenated.

Now this de oxygenated blood, this is in an artery, right?

This is an artery, a non pulmonary artery and it is oxygenated.

And then that oxygenated blood is pumped to the rest of the body.

This separate circulatory system, called coronary circulation, keeps the heart nourished and oxygenated.

Now this blood right here remember, this one still is de oxygenated blood.

She said, Yes, if the sacral nerve is being oxygenated, you conceivably could.

So we have de oxygenated blood coming from the rest of the body, right?

Then I'm pumping this de oxygenated blood away from the heart to the lungs.

But what we have is, the heart pumps de oxygenated blood from the right ventricle.

And these bronchial arteries bring then, really wonderful oxygenated blood, right. These are the bronchial arteries.

As we go away from the heart, we have de oxygenated blood, but it's still an artery.

So when we're dealing with non pulmonary arteries, we're oxygenated, but a pulmonary artery has no oxygen.

Because the pulmonary artery is actually gonna carry deoxygenated blood, and the pulmonary vein is carrying oxygenated blood.

They run right past the alveoli and then they become oxygenated and now we're going back to the heart.

Now in the left ventricle, after it's done pumping, it expands and that oxygenated blood flows into the left ventricle.

So it becomes de oxygenated and then it flows back in and to the inferior vena cava, into the vein.

Then it goes to the heart, rubs up against some alveoli and then gets oxygenated and then it comes right back.

The answer is right here, so you basically get red blood, oxygenated blood, flowing over all these parts of the tubule.

left ventricle and then the left ventricle pumps that oxygenated blood to the rest of the body via the non pulmonary arteries.

Miramontes Luis E., Fritsche Oscar, Romero Miguel A (1963), DEHYDRO OXYGENATED 6 METHYL 16.alpha.,17.alpha. EPOXYPREGN 20 ONE DERIVATIVES , Canada Patent CA 673756.

For example, one of interpretations goes as following non oxygenated ring contexts (284.8 eV), C O (286.2 eV), C O (287.8 eV) and O C O (289.0 eV).

And It's again stopped a little bit there, but I can fill it in and the pulmonary veins are gonna deliver that oxygenated blood to the left atrium.

And once it's oxygenated, it shows up here in the left let me do a better color than that it shows up right here in the left atrium.

And so usually arteries have oxygenated blood, that they're bringing out to the tissues. And then the veins carry the deoxygenated blood, that they bring back from the tissue.

It's in the loop with the lungs so it's a pulmonary vein and it rubbed up against the alveoli and got the oxygen diffused into it so it is oxygenated.

Now this is somebody who is brain dead, legally dead, definitely checked out, but is being kept alive on a respirator, so that their organs will be oxygenated for transplantation.

And it pumps that blood to the lungs where the blood gets oxygenated. And then it comes back from the lungs, depicted as red blood, now that it has oxygen in it.

So when we go away from the heart and we're going to delve a little bit into the heart in this video as well so when blood travels away from the heart, it's de oxygenated.

So what we're really getting out of this is information of the structure of the brain, but we can also measure the difference in magnetic properties of blood that's oxygenated and blood that's depleted of oxygen.

Because this is blood returning from our legs if we're running, or returning from our brain, that had to use respiration or maybe we're working out and it's returning from our biceps, but it's de oxygenated blood.

Now when you look at this picture you could say, well, okay, I guess you can see all the different tissues are getting the blood, basically sounds like everything is coming from the oxygenated blood, coming out of the left ventricle.

And what you have here is when we're coming from the heart, this is de oxygenated blood and it's actually going to have a high concentration of carbon dioxide. I already did nitrogen as green. Let me do carbon dioxide as orange.

And that's why in most of your body, your veins that have de oxygenated red blood cells look kind of bluish. And the reason why it changes color is that when the oxygen bonds to the hem sites on the hemoglobin, it actually changes the entire confirmation, the entire structure of the protein. We've see that multiple times.