So we know that 30 times Betty's velocity is equal to 20 times Ann's velocity, 20va.

And he asked you to expect it right over here.

Tom looked at the speedometer.

Read out my airspeed, then.

And that is his average speed.

And what we're gonna see in a second is how average speed is different than instantaneous speed.

The large mountain on the other side is Perseus Pisces Supercluster.

Average foot speed over uneven ground, barring injuries, is four miles per hour.

If we subtract 400 from both sides, we get 12 times

Divide both sides of this equation by 12.

Oh, I'm doing his arms coming out of his head.

I'll specify that by v I want to be clear. This is not vector quantity.

Animation speed

Glyph speed

Animation speed

The speed of the animations.

Animation Speed

Speed of moves

This distance right here.

Average from leechers

Average from seeds

Suspended

S peed

Moving speed

Speed

Seed

Speed

Fritz Zwicky in 1930's who did a very simple experiment.

Yep, 40.

This is close to but does not have to be equal to the age of the Universe at that time, T0.

The choice in this case is pretty simple.

We know it in terms of Ann's velocity.

Current speed

Download speed of the chunk

Let's say, to the right.

Divide both sides by 6.

So what's going to happen here?

At this speed? !

But now this is moving at some velocity.

And each one of them will then yield errors in the estimates of the peculiar velocity.

Accelerate to attack speed.

Betty's velocity let's just do it that way if we divide both sides by 20 we get 3 2 of Betty's velocity is equal to Ann's velocity.

And let me plot its velocity against time so this is my velocity

Assuming that we start with... so my initial velocity, or I could say the magnitude of my initial velocity so just my initial speed, you could say, this is just a fancy way of saying my initial speed... ...is zero

Download Speed