Given the equation of ㅠ $(e) = () (2me) ³/2 m represents the mass, and cubical box of side L a) Please calculate the (e) # of states that are in the interval, e and € + de, b) Your next task is to demonstrate that 1019 states lie from € to € + de. You would choose your de to be 10-24 erg (safely smaller than e) 6 x 10-14 erg. c) Argon atom at a room temp has energy typical of Make a very rough numerical estimate of N(E) for a liter of argon gas at room tempera- ture if E= Ne (N is the number of atoms in the liter), and & E= 10-24 erg. Perhaps this will convince you that In (22) is a more tractable quantity than 2. [Hint: First estimate (E) for the gas by assuming that each atom has any energy up to e and can be in any one of the states found in part (c).]

Given the equation of ㅠ $(e) = () (2me) ³/2 m represents the mass, and cubical box of side L a) Please calculate the (e) # of states that are in the interval, e and € + de, b) Your next task is to demonstrate that 1019 states lie from € to € + de. You would choose your de to be 10-24 erg (safely smaller than e) 6 x 10-14 erg. c) Argon atom at a room temp has energy typical of Make a very rough numerical estimate of N(E) for a liter of argon gas at room tempera- ture if E= Ne (N is the number of atoms in the liter), and & E= 10-24 erg. Perhaps this will convince you that In (22) is a more tractable quantity than 2. [Hint: First estimate (E) for the gas by assuming that each atom has any energy up to e and can be in any one of the states found in part (c).]

Elements Of Electromagnetics

7th Edition

ISBN:9780190698614

Author:Sadiku, Matthew N. O.

Publisher:Sadiku, Matthew N. O.

ChapterMA: Math Assessment

Section: Chapter Questions

Problem 1.1MA

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