That extra compression is going to be distributed through the whole balloon.

Face up should not be used because this puts excess stress on the inner arms.

Region II which sits closest to the pore lumen, forms the pore lining.

The rest of the balloon is going to expand uniformly, so that increased pressure I'm doing is going through the whole thing.

Hyperbolic sine

Hyperbolic tangent

Hyperbola

But these pores here are special.

I have water throughout this whole thing, and all Pascal's principle is telling us that if I were to apply some pressure here, that that net pressure, that extra pressure

Hyperbolic cosine

Inverse hyperbolic sine

Inverse hyperbolic tangent

Savings (overruns)

Let's add the hyperbola.

Now, this pore can open and close.

The classic or the standard non shifted form of a hyperbola or a hyperbola centered at 0 would look something like this.

Inverse hyperbolic cosine

Do not show the extra text

You can graph your hyperbola.

Let's see if we can learn a thing or two about the hyperbola.

Let's all stop being so damned respectful.

But a hyperbola would look something like this.

left and right points on a hyperbola.

You get the pressure input is equal to the pressure output, so P1 is equal to P2.

And these are individual potassium ions that are flowing through that pore.

Hyperbola by Asymptotes Point

Hyperbola by Focuses Point

Asymptotes of a Hyperbola

These facts were indicative of over production.

We talk about the curse of information overload.

Now, let's graph this hyperbola.

And let's figure out the asymptotes of this hyperbola.

So a hyperbola usually looks something like this.

But this hyperbola looks something like this.

The overall pressure ratio of the compression system is 24.3.

Compression

Compression

Pressure

pressure weight

Mouse pressure

Pressure

Progressive

Skin expansion sheets (which affects burn units)

Equilateral Hyperbola by Four Points

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