You can use this stored elastic energy to move blood. You can use this for movement energy.

Pressure. Pression.

Pressure's dropping.

We clamp it at the center of the jaws leaving adequate clearance for the cutting path

This is a very, very unusual building in that there's no gravity load, but there's load in every direction.

Time to put the squeeze on them.

It puts pressure on water demand.

Oh, gee please professor don't pick me, I don't know the answer.

I'd look down.

It's made out of a semiconductor.

The soft jaws are clamping inwards on the boring ring at 100 psi

And now it starts moving in three dimensional space so up or down.

He is really putting the squeeze on me.

He twisted my arm.

He pressured me.

Make the call. I want some leverage.

So lets take a point, maybe there and there, and lets call that the spot where we are checking pressure energy.

The examiner places one arm beneath the patient's femur.

And it's pressure sensitive to the forces both in the plane of the screen

This puts pressure on food demand.

Biodiverse, low nutrient, hard coral systems under multiple pressures of overfishing, unsustainable tourism, climate change.

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Well... they're putting the squeeze on.

As the bouncy ball hits the floor, it causes a downward force on the floor.

It's the pressure reg valve again.

We will address that scenario in another video in this series

Anyway, his boss is pressuring him

He brought pressure to bear on our decision.

That means you are accelerating downward.

We're putting more pressure on the Earth.

To raise the metal cylinders, we need to apply a force equal to their weight.

Now not all balloons are going to behave that way, but let's assume for the moment that this balloon does that.

And especially if the partner draws attention to itself, they choose more.

No pressure.

If we know what that force is, and we you know the area of the wall, we can figure out pressure, because pressure is equal to force divided by area.

Already you can see that the lesson from the first part of this picture was that we have a little bit of elastic energy here and you can see that.

Its the pressure in the blood that is actually causing the vessels to balloon out.

External pressure grows ever more intense.

External pressure grows ever more intense.

Why are you still thinking that the lessons of Katrina do not apply to flu?

The answer is, students in Korea learn in large classes.

But that costs us 10, but we can turn 3 times counterclockwise.

When we look at some system and we can make some experiments

If you were to go down to a depth of about 130 feet, which is the recommended limit for most scuba divers, you'd get this pressure effect.

Already you can see that that means in diastole my pressure is going to fall as well.