List explicitly all the ways to arrange 2 quanta among 4 one-dimensional oscillators.

Short Answer

Expert verified

the list of the ways to arrange 2 quanta among 4 one dimensional oscillators is

1100,1100,1010,1010,1001,1001,0110,0110,0101,0101,0011,0011,2000,2000,0200,0200,0020,0020,0002,0002,

Step by step solution

01

Understanding the oscillator

In this problem, the concept of a total number of microstates will be used to determine the list explicitly all the ways to arrange quanta among different dimensional oscillators.

02

Determination of the total number of microstates of 2 quanta in 4 one dimensional oscillators.

The expression to calculate the total number of microstates of 2 quanta in 4 dimension oscillators is expressed as follows:

N=Numberofquanta+Numberofoscillator1Numberofquanta!numberofoscillator1

Here, N represents the total number of microstates of 2 quanta in 4 dimension oscillators.

Substitute the values in the above expression.

role="math" localid="1655489155238" N=(2+4-1)2!(4-1)

role="math" localid="1655489167047" =10

Thus, the total numbers of microstates are 10.

03

Determination of the list of the ways to arrange 2 quanta among 4 one dimensional oscillators.

The list of the ways to arrange 2 quanta among 4 one dimensional oscillators can be expressed as follows:

1100,1100,1010,1010,1001,1001,0110,0110,0101,0101,0011,0011,2000,2000,0200,0200,0020,0020,0002,0002,

Thus, the list of the ways to arrange 2 quanta among 4 one dimensional oscillators is

1100,1100,1010,1010,1001,1001,0110,0110,0101,0101,0011,0011,2000,2000,0200,0200,0020,0020,0002,0002,

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This question follows the entire chain of reasoning involved in determining the specific heat of an Einstein solid. Start with two metal blocks, one consisting of one mole of aluminum (27 g) and the other of one mole of lead (207 g), both initially at a temperature very near absolute zero (0 K). From measurements of Young’s modulus one finds that the effective stiffness of the interatomic bond modeled as a spring is 16N/mfor aluminum and 5 N/m for lead. (a) Is the number of quantized oscillators in the aluminum block greater, smaller, or the same as the number in the lead block? (b) What is the initial entropy of each block? (c) In which metal is the energy spacing of the quantized harmonic oscillators larger? (d) If we add 1 J of energy to each block, which metal now has the larger number of energy quanta? (e) In which block is the number of possible ways of arranging this of energy greater? (f) Which block now has the larger entropy? (g) Which block experienced a greater entropy change? (h) Which block experienced the larger temperature change? (i) Which metal has the larger specific heat at low temperatures? (j) Does your conclusion agree with the actual data given in Figure 12.33? (The numerical data are given in a table accompanying Problem P64.)

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