Joule-Thomson effect: Difference between revisions
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In terms of the [[second virial coefficient]] one has | In terms of the [[second virial coefficient]] at zero [[pressure]] one has | ||
:<math>\mu_{\mathrm JT} = B_2 -T \frac{dB_2}{dT}</math> | :<math>\mu_{\mathrm JT} = B_2 -T \frac{dB_2}{dT}</math> |
Revision as of 12:17, 12 July 2007
The Joule-Thomson effect is also known as the Joule-Kelvin effect.
Joule-Thomson coefficient
The Joule-Thomson coefficient is given by
where T is the temperature, p is the pressure and H is the enthalpy.
In terms of heat capacities one has
and
In terms of the second virial coefficient at zero pressure one has