12. For a given macrostate of a system, let P, be the probability that the system is in the microstate >. The corresponding Gibbs entropy is given by 5-k En PinPn. We can obtain the familiar Boltzmann entropy S = k In from the given Gibbs entropy if the probability distribution is, ( is the number of accessible microstates), A) P₁₂ = PR E = 1/₂hw NEF ==WEE B) P₁ = e-a C) P₁ = e D) P₁ = E) P₁ = 2² 13. For a system with linear dispersion E(k)= hvk, in three dimensions, the density of states at energy E depends on energy as -* (en (k) E(K) = hvk + 1 h nk + 1 huk A) E B) E2 C) E D) E E) Independent of energy E of an ideal بدارية بمرايت ~/M + + S = -K EnPnlupn. S = klnn rim is confined to half of a boy s 12 lukk moved and Joule (free)

12. For a given macrostate of a system, let P, be the probability that the system is in the microstate >. The corresponding Gibbs entropy is given by 5-k En PinPn. We can obtain the familiar Boltzmann entropy S = k In from the given Gibbs entropy if the probability distribution is, ( is the number of accessible microstates), A) P₁₂ = PR E = 1/₂hw NEF ==WEE B) P₁ = e-a C) P₁ = e D) P₁ = E) P₁ = 2² 13. For a system with linear dispersion E(k)= hvk, in three dimensions, the density of states at energy E depends on energy as -* (en (k) E(K) = hvk + 1 h nk + 1 huk A) E B) E2 C) E D) E E) Independent of energy E of an ideal بدارية بمرايت ~/M + + S = -K EnPnlupn. S = klnn rim is confined to half of a boy s 12 lukk moved and Joule (free)

College Physics

11th Edition

ISBN:9781305952300

Author:Raymond A. Serway, Chris Vuille

Publisher:Raymond A. Serway, Chris Vuille

Chapter1: Units, Trigonometry. And Vectors

Section: Chapter Questions

Problem 1CQ: Estimate the order of magnitude of the length, in meters, of each of the following; (a) a mouse, (b)...

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Hi, could I get some help with this macro-connection physics problem involving isothermal expansion? The set up is: For an isothermal reversible expansion of two moles of an ideal gas, what is the entropy change of the a) gas and b) the surroundings in J/K to 4 digits of precision if the gas volume quadruples, assuming NA = 6.022e23 and kB = 1.38e-23 J/K? Thank you.
For one component gas that is confined in a box with volume V. We can get the entropy of the gas as S= Nk, in- where N is the total a² number of atoms, a is the radius of the atom. Can you guess how it is obtained?
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