1. Starting with the partition function of a monoatomic ideal gas with N particles, (a) Find the entropy S as a function V, T(or ?) and N. (Check whether the result is consistent with Sackur-Tetrode equation). (b) Find the chemical potential ? as a function V, T(or ?) and N.
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5, where h is the Planck constant, m is the mass of the particle, k is the Boltzmann constant, and T is the temperature. The entropy S can be obtained from the partition function using the relation: S = -k * ln(Z) + k * N * ln(q) where q is the volume of the Show more…
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Q2) This is the multiplicity of monoatomic ideal gas (Identical particles) 1 Vn T BN/2 3N Q, ~ VzmU N! h (3N/2)! (a) Derive the entropy of monoatomic ideal gas (Sackur-Tetrode Equation) 5 S = Nk [K(V(amu))^2] (b) Depending on the entropy formula of the monoatomic ideal gas and this equation, find the energy U, the pressure P, and the chemical potential of the monoatomic ideal gas.
Akancha C.
The canonical partition function of an ideal gas consisting of monoatomic particles is equal to Q(N, V, T) = 1/h^3N N! integral d Gamma exp[-betaH] = V^N/lambda^3N N! in which lambda = h/Square root 2 pi m/beta and d Gamma = dq_1...dq_Ndp_1...dp_N. Derive expressions for the following thermodynamic properties: F[N, V, T] P[N, V, T] (which leads to the ideal gas law !!!) mu [N, V, T] (which leads to mu = mu_0 + RT in p) U [N, V, T] and S[N, V, T] C_v (heat capacity at constant volume) C_p (heat capacity at constant pressure)
Adi S.
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