The departure function of this quantity is divided by the quantity ideal gas constant times temperature,   and then placed in a power that is multiplied by pressure to find fugacity. The partial molar  measurement of this quantity is equivalent to chemical potential. This quantity is applied to systems   that are both isothermal and isobaric, and a basic formula for this quantity includes a pressure times  volume term if that formula uses inter
The departure function of this quantity is divided by the quantity ideal gas constant times temperature,   and then placed in a power that is multiplied by pressure to find fugacity. The partial molar  measurement of this quantity is equivalent to chemical potential. This quantity is applied to systems   that are both isothermal and isobaric, and a basic formula for this quantity includes a pressure times  volume term if that formula uses internal energy rather than enthalpy. Identify this quantity used  to determine whether reactions will occur simultaneously, often contrasted with a similar quantity  named for Helmholtz.
The departure function of this quantity is divided by the quantity ideal gas constant times temperature,   and then placed in a power that is multiplied by pressure to find fugacity.