(1) When the energy of the system (simple harmonic oscillator) is given by E = (n +;) hw in a heat bath of temperature T, (a) Derive the partition function Z. (b) For high temperature kT » hw, derive the approximate form of Z. (c) Calculate F (Helmholtz free energy), U (internal energy), and S (entropy) of the system.
(1) When the energy of the system (simple harmonic oscillator) is given by E = (n +;) hw in a heat bath of temperature T, (a) Derive the partition function Z. (b) For high temperature kT » hw, derive the approximate form of Z. (c) Calculate F (Helmholtz free energy), U (internal energy), and S (entropy) of the system.
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ħw in a
heat bath of temperature T,
(a) Derive the partition function Z.
(b) For high temperature kT » ħw, derive the approximate form of Z.
(c) Calculate F (Helmholtz free energy), U (internal energy), and S (entropy) of the system."
Transcribed Image Text:(1) When the energy of the system (simple harmonic oscillator) is given by E = (n+)
ħw in a
heat bath of temperature T,
(a) Derive the partition function Z.
(b) For high temperature kT » ħw, derive the approximate form of Z.
(c) Calculate F (Helmholtz free energy), U (internal energy), and S (entropy) of the system.
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