Consider a macrostate defined as follows :

j=1 j=2 j=3

$\epsilon_{1}$ $\epsilon_{2}$ $\epsilon_{3}$

$C_{1}=5$ $C_{2}=6$ $C_{3}=3$

$N_{1}=2$ $N_{2}=5$ $N_{3}=1$

The system parameters are evaluated as: $E=2\epsilon_{1}+ 5\epsilon_{2}+\epsilon_{3} N=8.$

Question

Consider a macrostate defined as follows :

j=1	j=2	j=3
[latex]\epsilon_{1}[/latex]	[latex]\epsilon_{2}[/latex]	[latex]\epsilon_{3}[/latex]
[latex]C_{1}=5[/latex]	[latex]C_{2}=6[/latex]	[latex]C_{3}=3[/latex]
[latex]N_{1}=2[/latex]	[latex]N_{2}=5[/latex]	[latex]N_{3}=1[/latex]

The system parameters are evaluated as: [latex]E=2\epsilon_{1}+ 5\epsilon_{2}+\epsilon_{3} N=8.[/latex]

Accepted Answer

We can construct many microstates consistent with the system, for example:

In our proposed counting approach, let us first consider step (2) for a group of [latex]C_{j}[/latex] states containing [latex]N_{j}[/latex] indistinguishable particles.

Question 3.3: Consider a macrostate defined as follows: j = 1 j = 2 j = 3 ...

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