AStaunton
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I have posted a few questions on maxwell Boltzmann distribution, the problem this time is show:
[tex]\langle v_{x}\rangle=0[/tex]
I believe the modified maxwell-boltz distrib. for one dimensional case is:
[tex]f(v_{x})=\sqrt{\frac{m}{2\pi kT}}e^{-\frac{mv_{x}^{2}}{2kt}}[/tex]
My thinking was that simple plug it into the formula:
[tex]\langle v\rangle=\int_{0}^{\infty}vf(v)dv[/tex]
and the integral should evaluate to 0 but the above clearly doesn't evaluate to 0.
Any advice on how to approach this problem is appreciated.
[tex]\langle v_{x}\rangle=0[/tex]
I believe the modified maxwell-boltz distrib. for one dimensional case is:
[tex]f(v_{x})=\sqrt{\frac{m}{2\pi kT}}e^{-\frac{mv_{x}^{2}}{2kt}}[/tex]
My thinking was that simple plug it into the formula:
[tex]\langle v\rangle=\int_{0}^{\infty}vf(v)dv[/tex]
and the integral should evaluate to 0 but the above clearly doesn't evaluate to 0.
Any advice on how to approach this problem is appreciated.