Maxwell's thermodynamic figure depicts this quantity as a line connecting points A and B. Legendre transforms allow one to derive the total differential natural variables of this value, and an expression for the derivative of this quantity contains the difference in the number of particles in the initial and final states of the system. Fugacity affects an equation that can calculate this quantity as a function of temperature; that equation is named for Helmoltz and this quantity's formulator. In electrochemistry, this quantity's molar form can be found by multiplying t
Maxwell's thermodynamic figure depicts this quantity as a line connecting points A and B. Legendre transforms allow one to derive the total differential natural variables of this value, and an expression for the derivative of this quantity contains the difference in the number of particles in the initial and final states of the system. Fugacity affects an equation that can calculate this quantity as a function of temperature; that equation is named for Helmoltz and this quantity's formulator. In electrochemistry, this quantity's molar form can be found by multiplying the number of moles of electrons moved by Faraday's constant and the half potential of the substance. The natural log of the equilibrium constant is proportional to, for 10 points, what quantity, given by the difference between the change in enthalpy and the product of entropy and a constant temperature?
Maxwell's thermodynamic figure depicts this quantity as a line connecting points A and B. Legendre transforms allow one to derive the total differential natural variables of this value, and an expression for the derivative of this quantity contains the difference in the number of particles in the initial and final states of the system.
Gibbs free energy or G