Chapter 41: Q29P (page 1274)
Use the result of Problem 23 to calculate the total translational kinetic energy of the conduction electrons in of copper at T = 0K.
Short Answer
The total translational kinetic energy of the conduction electrons is .
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Chapter 41: Q29P (page 1274)
Use the result of Problem 23 to calculate the total translational kinetic energy of the conduction electrons in of copper at T = 0K.
The total translational kinetic energy of the conduction electrons is .
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At what pressure, in atmospheres, would the number of molecules per unit volume in an ideal gas be equal to the number density of the conduction electrons in copper, with both gas and copper at temperature T =300K?
Show that, at , the average energy of the conduction electrons in a metal is equal to . (Hint:By definition of average , where nis the number density of charge carriers.)
In the biased p-njunctions shown in Fig. 41-15, there is an electric field in each of the two depletion zones, associated with the potential difference that exists across that zone. (a) Is the electric field vector directed from left to right in the figure or from right to left? (b) Is the magnitude of the field greater for forward bias or for back bias?
On which of the following does the interval between adjacent energy levels in the highest occupied band of a metal depend: (a) the material of which the sample is made, (b) the size of the sample, (c) the position of the level in the band, (d) the temperature of the sample, (e) the Fermi energy of the metal?
Figure 41-21 shows three leveled levels in a band and also the Fermi level for the material. The temperature is 0K. Rank the three levels according to the probability of occupation, greatest first if the temperature is (a) 0K and (b) 1000K. (c) At the latter temperature, rank the levels according to the density of states N(E) there, greatest first.

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