cyberdeathreaper
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Here's the question:
For what temperatures are the atoms in an ideal gas at pressure [itex]P[/itex] quantum mechanical?
Hint: Use the idea gas law
[tex] PV = N k_B T[/tex]
to deduce the interatomic spacing.
Answer:
[tex] T < \left( \frac{1}_{k_B} \right) \left( \frac{h^2}_{3m} \right)^{\left( \frac{3}_{5} \right)} \left( P^\frac{2}_{5} \right)[/tex]
-------------
Now, I have been given the formula for the typical de Broglie wavelength:
[tex] \lambda = \frac{h}_{\sqrt{3 m k_B T}}[/tex]
Further, I know I am trying to determine when
[tex] \lambda > d[/tex]
where d is the interatomic spacing.
However, what I don't understand is how I can calculate a value for d given the idea gas law in the question. Any ideas?
For what temperatures are the atoms in an ideal gas at pressure [itex]P[/itex] quantum mechanical?
Hint: Use the idea gas law
[tex] PV = N k_B T[/tex]
to deduce the interatomic spacing.
Answer:
[tex] T < \left( \frac{1}_{k_B} \right) \left( \frac{h^2}_{3m} \right)^{\left( \frac{3}_{5} \right)} \left( P^\frac{2}_{5} \right)[/tex]
-------------
Now, I have been given the formula for the typical de Broglie wavelength:
[tex] \lambda = \frac{h}_{\sqrt{3 m k_B T}}[/tex]
Further, I know I am trying to determine when
[tex] \lambda > d[/tex]
where d is the interatomic spacing.
However, what I don't understand is how I can calculate a value for d given the idea gas law in the question. Any ideas?