Now we hit Run, and we see that we have 70,560 minutes.

And what I want to show you in this video that is in general, if you plot velocity, the magnitude of velocity ...so you could say speed versus time... or let me just stay with the magnitude of the velocity versus time the area under that curve is going to be the distance traveled (or the displacement) because displacement is just the velocity times the change in time so if you just take out a rectangle right over there

That's how fast he's approaching the back of the column.

She's going at the same velocity, but it takes her 20 minutes.

So the column will move its distance is equal to the column's rate, velocity.

Acceleration time

Appearance time

So if we're going at 1000km hour going at 1000km hour, it would take us

Although I'm sure you know this formula.

And for those of you who prefer miles per hour, that's over 45 miles per hour in water.

The Redwood species seems to exist in another kind of time not human time, but what we might call Redwood time.

From this point, we're going to decelerate from 12,500 miles an hour down to 900 miles an hour.

What is 3x squared plus 1?

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

And you would say, it takes 15 seconds.

So the slope over here might be 23... whatever miles per hour, but instantaneous, his fastest poin in this 9.58 seconds is closer to 30 miles per hour.

Arnold, we're going to hit light speed in 24 hours,

So there's a tradeoff.

We have a lot of time.

A fast walker can walk six kilometers in an hour.

Another important factor that I didn't take into account initially was the time cooked.

She explodes into action, reaching up to 60 miles per hour.

It's the 3 kinematic state variables, and in addition we care about velocities, so there is formal velocity of the vehicle itself and the faster the vehicle moves, the further it is going to advance in a max timestep.

Basically when Bing Maps or Google Maps gets a request it doesn't have the time to look at the whole map, so linear time algorithms like your classical Dijkstra's algorithm are not good enough, and the new wrinkle was preprocessing, so you want to preprocess your graph to be able to answer queries very, very quickly, sort of in polylogarithmic time if you want to put your theory hat on.

A dog runs faster than a human.

Dogs run faster than people.

So she's going to make some distance up so he's not going to have to travel quite as far.

They just said that the officer is going 3 times as fast, but we don't know absolute velocities.

The input into our box is going to be hours that he worked.

Ken runs faster than you.

By the time we see what is ahead of us and react to it time times velocity equals distance equals one fifth of a second times 25,000 miles per hour equals 1.4 miles

That's them rolling.

So this goes straight back to the, the standard to distance is equal to rate times time.

You get vbt minus vct is equal to 300.

So maybe I go, every half second so on this half second, I was going at this velocity and I go at that velocity for half a second velocity times the time will give me the displacement and then I do it for the next half second same exact idea here, it'll give me the displacement so on and so forth

What if I want to fix your program

See it uncurl and then peel these toes.

So, this whole column is moving to the right.

I'm free.

I have some time.

So I didn't have to do any of the cocontracting and all that. TK

At our current speed, 8.2 hours.

I'm actually going to only plot the magnitude of velocity and you can specify that like this _BAR__BAR_v_BAR__BAR_ so this is the magnitude of the velocity

A horse can run faster than a man can.

A dog can run faster than a man can.