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dU = ?
TdS - PdV
dH = ?
TdS + VdP
dA = ?
-SdT - PdV
dG = ?
-SdT + VdP
(dU/dV)S
-P
(dH/dS)p
T
(dH/dP)s
V
(dA/dT)v
-S
(dA/dV)T
-P
(dG/dT)P
-S
(dG/dP)T
V
Maxwell relation: (dT/dV)S
-(dP/dS)V
Maxwell relation: (dT/dP)S
(dV/dS)P
Maxwell relation: (dS/dV)T
(dP/dT)V
Maxwell relation: (dS/dP)T
-(dV/dT)P
(dU/dT)V
Cv
(dH/dT)P
Cp
(dP/dT)V
α/KT
(dP/dV)T
(bulk modulus) = -1/VKT
(dS/dT)V
Cv/T
(dS/dT)P
Cp/T
αv
1/V * (dV/dT)P
KT
-1/V * (dV/dP)T
avogadros number
6.023 Ă 1023
Chain Rule (changes variable being differentiated w respect to)
(dz/dw)x = (dz/dy)x(dy/dw)x
Generalized Chain Rule (want different constant condition)
(dz/dx)w = (dz/dx)y + (dz/dy)x(dy/dx)w
Triplet Rule (promote constant condition to function)
(dy/dx)z = -(dz/dx)y/(dz/dy)x
Independence of Differentiation Order (maxwellâs relationship)
(d2z/dxdy) = d/dx[(dz/dy)x]y = d/dy[(dz/dx)y]x
when is ÎŽQ positive?
energy (heat) entering the system by thermal conduction from the environment
when is ÎŽW positive?
the system does work on the environment; energy is being extracted across the boundary of the system
H
U + PV
A
U - TS
G
H-TS = U + PV - TS