1. Where the p's are the microstate probabilities.

2. So this is a system microstate.

3. And our microstate energy is the sum of all the molecular energies Ei.

4. Based on microstate generating function, a term generating function and atomic terms were obtained. The method is suitable for both equivalent and nonequivalent electronic configurations.

5. So the probability of being in that microstate is one.

6. And the probability of being in any one microstate is just one over the number of possible ways of rearranging pi one over the number of my microstates.

7. And the probability of being in every other microstate is zero. Alright, so there's a relationship that we're going to have here, which is going to be interesting. Let's derive it.

8. Every single microstate is going to have the same energy.

9. Ei Alright, so now let's take our microstate energy here.

10. Small microcode stores were built from ROM and microstate machines were moved to large microcode stores and to complex hardware units and sequencers, to achieve those goals.

11. If I take a microstate of the system, you know, the whole collection of the particles, all of those states also have the same energy.

12. Borrowing from Chinese, Indian, Malaysian, Tamil and Peranakan cuisines, the food in Singapore is as multi-cultural and unique as the island (and microstate) itself.

13. n And the sum of all these energies is your microstate energy.

14. TEM, phase microscope and particle size analysis were used to research the conformation of FWA OB and OB-1 and their microstate in PP.