@wikipedia
Volume occupied by one mole of a substance (chemical element or chemical compound) at a given pressure and temperature :
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V_m(p, T) = \frac{V}{\nu} =\frac{M}{\rho}= \frac{1}{\rho_m} = \frac{N_A}{n} |
where
Molar volume
is directly related to the average intermolecular distance and in case of isotropic substance: | LaTeX Math Inline |
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| body | --uriencoded--V_m = N_A \cdot d%5e3 |
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.
Molar volume
is inverse to Molar Density : | LaTeX Math Block |
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V_m = \frac{1}{\rho_m} |
In case of fluid which satisfies Real Gas EOS @model the Molar volume can be expressed in terms of Z-factor :
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V_m = \frac{ZRT}{p} |
where
Molar volume of the mixture is:
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V_m(p, T) =\frac{M}{\rho_f} = \frac{\sum_k M_k \cdot x_k}{\rho_f} |
