Mu'a

But we've just figured it out our expressions for mu A and mu B, our chemical potentials of each constituent in the ideal liquid mixture.

And on the gas phase side, mu A, it's going to be the same thing as the chemical potential of the pure A.

A So, we can write for A, mu A of the liquid at some temperature and pressure must equal chemical potential A That's the partial pressure.

Is equal to mu A in the liquid phase, P where the pressure on the liquid is capital P.

Well, in that case, mu A naught or sorry, A mu A in the liquid phase, mu A star is mu A naught in the gas phase.

A We're done because on that side here I have mu A, the chemical potential of A in the mixture, temperature T, pressure p total.

And that's equal to mu A star A* of the pure liquid at point beta.

They also grow 20 mu a little over one hectare of corn for silage .

A I've got mu A pure temperature T pressure p total, RTlogx plus a term. Plus RT log xA.

And here is A plus B liquid, so mu A star is greater than mu A.

So I'm going to rewrite this as mu A pure temperature T at one bar.

Li Mu: A college teacher.

We need to know the change in mu A at a finite jump in pressure from inside to outside the container.

So we can write mu A in the liquid at T and p, right?

Such as, Du Mu, a famous poet in Tan Dynasty, once wrote poetry named 'Shan Xing (Trip to Mountain)', which is my favorite.