And all I did is, I took the focal length and I subtracted

So, a three dimensional blob will flatten itself into a pancake like structure.

Take a measurement every ninety degrees (90 ) of rotation

Take a measurement every 90 degrees of rotation

Plot a course along this axis.

This provides two values along the Y axis and along the X axis

We will rough level the machine side to side and front to back

The other option is you say, OK, can x or y equal 0?

Jog the turret to the middle of X axis travel

So notice, they look like they're kind of flipped around the axes.

Adjust either the front or back screws evenly to bring the bubble to the center of the vial

So let's count up 1, I can even write down 1 then we have 2, that's right there then we have 3, then we have 4, then we have 5 and then we have moved up 6 along the x axis we started at the origin at (0,0), that's the origin then we moved 6 to the right that's this part right over here indicating 6 in (6,8)

The structure will turn into a filament.

In this case the, focuses are always going to lie along the major axis.

Your robot is initially off the the x axis by 1.

At first, the perturbation expands within surrounding areas.

We call it the Earth.

And we knew it was volcanic back in the '60s, '70s.

With the machine leveled front to back, use the longer precision level

If I had to find altitude as the z axis with the arrow coming out of the diagram towards the viewer, this is a right handed coordinate system.

What about a series of scales, uniform or non uniform? Does order matter?

Or you could kind of view it I'm holding y constant and integrating along the x axis.

So here, putting a low number will scale it down and make it more narrow because we're opening along the x axis.

The differential looks complicated, but one we understand its principle, it is amazingly simple.

What I've done here is I've gone to Google trends and types in two search terms

Radical Lines for Conics

We'll draw the side profile shape, then use push pull to create the full chimney.

One is that they can be co aligned with major axis and minor axis.

Now let us begin with the machine leveling process

This one opens along the y axis, this one opens along the x axis.

If it hits something you people see that?

On this slide, I've listed a total of five different features.

So one way to think about it is we've figured out if these columns we've integrated up down or along the z axis.

What we want to do now is transform the world to the camera's frame of reference. Here's a camera and a model.

So if we have the point x is negative 1, y is negative 1.

After tightening the level screw lock nuts, verify with one more pass along the Z axis that there is still no twist in the machine

Do you also mean that is to complete our life?

So what I want to do is plot these, and on one axis, I'll have the number of rabbits, and on the other axis I'll have the number of berries.

But then, it turns around and it will turn around first at its shortest axis and it'll start collapsing along the shortest axis while still expanding in the other two.

This graphic illustrates what would happen if you did not cut to the nominal part diameter

Another way to view that is for any amount that you run along the x axis, how much do you rise?

And the easiest way to figure that out is to pick these, I guess you could call them, the extreme points along the x axis here and here.

Construct the Radical Lines of This Conic

Construct the radical lines of this conic

Switch Radical Lines