Question

Use gibbs distribution to calculate the average entropy, energy and pressure of a single classical particle...

Use gibbs distribution to calculate the average entropy, energy and pressure of a single classical particle of mass m, with no internal degrees of freedom, free to move in volume V at temperature T. For that you will need to know the volume Vd of an d-dimensional hypersphere of the unit radius. (Vd=pi^(d/2)/gamma(d/2+1))

Homework Answers

Answer #1

The Gibbs distribution function for the single particle is given by . So the partition function for the single particle free to move in volume V is given by

using the standard formula of Gaussian we can write this as

ones we have the partition function we can calculate the average values of E,S,P as follows

Know the answer?
Your Answer:

Post as a guest

Your Name:

What's your source?

Earn Coins

Coins can be redeemed for fabulous gifts.

Not the answer you're looking for?
Ask your own homework help question
Similar Questions
Here we calculate the partition function, molar translational internal energy, and molar translational entropy of a...
Here we calculate the partition function, molar translational internal energy, and molar translational entropy of a monatomic gas. The single particle translational partition function is qtrans=VΛ3) where Λ is the thermal wavelength and teh entropy is given by the Sackur-Tetrode equation S=N*kB*ln((qtrans*e^5/2)/N). A. Calculate the single particle translational partition function q for neon gas at T=298K and V=22.4L. Assume neon behaves ideally. B. Based on your answer in Part A, calculate the molar translational internal energy of neon at at...
Calculate the change in entropy for one mole of ideal gas which expands from an initial...
Calculate the change in entropy for one mole of ideal gas which expands from an initial volume of 2 L and initial temperature of 500 K to a final volume of 6 L under the following conditions. P(initial) refers to the pressure when T(initial)= 500K, V(initial)= 2 L. a) Irreversible expansion against a constant pressure of Pinitial/2 b) Irreversible expansion against a vacuum...a 'free expansion'. c) Adiabatic irreversible expansion against a constant pressure of Pfinal d) Adiabatic reversible expansion
Consider two containers, Both have volume 0.1 m3, and pressure 106 Pa One contains monatomic (...
Consider two containers, Both have volume 0.1 m3, and pressure 106 Pa One contains monatomic ( 3 degrees of freedom) He at T= 124 K and One contains diatomic (5 degrees of freedom) N2 at T = 238 K. A valve is opened allowing these two gases to mix. They are kept thermally isolated from the outside. You can treat them as ideal gases. 1) What is the change in internal energy under this process? 2) What is the final...
2 Equipartition The laws of statistical mechanics lead to a surprising, simple, and useful result —...
2 Equipartition The laws of statistical mechanics lead to a surprising, simple, and useful result — the Equipartition Theorem. In thermal equilibrium, the average energy of every degree of freedom is the same: hEi = 1 /2 kBT. A degree of freedom is a way in which the system can move or store energy. (In this expression and what follows, h· · ·i means the average of the quantity in brackets.) One consequence of this is the physicists’ form of...
II(20pts). Short Problems a) The lowest energy of a particle in an infinite one-dimensional potential well...
II(20pts). Short Problems a) The lowest energy of a particle in an infinite one-dimensional potential well is 4.0 eV. If the width of the well is doubled, what is its lowest energy? b) Find the distance of closest approach of a 16.0-Mev alpha particle incident on a gold foil. c) The transition from the first excited state to the ground state in potassium results in the emission of a photon with  = 310 nm. If the potassium vapor is...
Energy expended to drive cyclosis in a single chloroplast cell Use the formula (Equation 1) derived...
Energy expended to drive cyclosis in a single chloroplast cell Use the formula (Equation 1) derived in the practical module (included below) to calculate the energy expended to bring about cyclosis in each of the cells of the leaves you have been observing. Don’t forget units! Use brackets around each variable when performing your calculations. You must show your working to gain full marks. Equation 1: 6πrnV2M (Js-1 Cell-1 for a cell containing M chloroplasts) π 3.14 (pi) r 3.665...
(1) (a) Let’s derive an ideal gas law. Let’s start with a cubic box with side-length...
(1) (a) Let’s derive an ideal gas law. Let’s start with a cubic box with side-length L. Now assume we have a particle traveling perfectly horizontally towards a single wall. When it collides with that wall, it will turn around and hit the wall on the other side. It will continue to bounce back and forth in this way forever. What is the period of this motion? In other words, how much time does it take for the particle to...
1) Describe an example of each of the following that may be found of your kitchen:...
1) Describe an example of each of the following that may be found of your kitchen: Explain how your choice falls into this category, and if there is a chemical name or symbol for it, provide that as well. Provide a photo of your example with your ID card in it. a) a compound b) a heterogeneous mixture c) an element (symbol) Moving to the Caves… Lechuguilla Caves specifically. Check out this picture of crystals of gypsum left behind in...
ADVERTISEMENT
Need Online Homework Help?

Get Answers For Free
Most questions answered within 1 hours.

Ask a Question
ADVERTISEMENT