We had knowledge about the electromechanical efficiency and then we can calculate the aerodynamic efficiency.

Only if you control and regulate it, you will get that aerodynamic efficiency.

Here. The Pirate Bay. And that's all.

Be fast.

Thermodynamics

Also, we see how we measure the aerodynamic efficiency.

Anybody who's trying to sell you biofuels, or this kind of thing, what do you do about the thermodynamic inefficiency of combustion engines?

With a split wing we get the lift at the upper wing, and we get the propulsion at the lower wing.

We only burn up a small amount of the uranium that's in there, we take it out and we stick it in a spent fuel pool.

You heat up one side, the hot side.

You cannot beat the thermal efficiency of the C3.

What happens is you have crossing over, and it's a surprisingly organized process.

There's a way to practice intelligently.

Now we can recast the cooling curve to be shown in the temperature density diagram.

And this next shot here is one of the lunchrooms.

That's gotta be convenient.

It's not about the things that it brings.

They are generally slow.

So the net total fraction of all stars that are being

This is the thermodynamic cycle that produces electricity, and this makes this almost 50 percent efficient, between 45 and 50 percent efficiency.

He's efficient, he's precise.

But the heaps that we were talking about the overhead is pretty raw and we get this kind of running time, the elapse should be pretty efficient.

Maybe a decade, according to my friends in Detroit.

let's compare that with a number I've just mentioned.

So the total running time ends up being we do (nlogk) operations.

That's how much thermal energy the reactor's putting out to how much electricity it's producing.

Psychophysiologic effect,

Radiates heat more effectively in warmer climates.

So returning to those big challenges that I mentioned at the beginning radical increases in resource efficiency, closing loops and a solar economy.

What SUNDAR stands for, in Hindi, is attractive.

So I'm going to talk about some projects that have explored these ideas.

A superorganism can basically take what it wants.

Neckties are loud.

This is a book on Optimal Transport, it is a problem involving mathematics, engineering, probability and geometry everything that was said.

you can see now the whole thing takes up far less space.

led by business for profit.

But that's a mistake.

Could you enhance certain effects? Probably so.

Another thing that it can be very helpful with is analyzing the efficiency of what you've produced.

That's inefficient.

Admittedly, trying to capture all of these effects leads to a lot of work and possibly inefficient shaders.

Fish farms pollute most of them do anyway and they're inefficient.

He builds a factory that can produce two million cupcakes a year.

Are there ways of organizing your computation so that it is efficient in terms of the amount of power that it uses.

less than one percent of the fuel energy ends up moving the driver.