This equation is very similar to the equation relating the Fermi level of an n-type semiconductor and the standard dopant energy level. This equation is used to relate the partial pressure and the sensor response of a CHEMFET or a Kelvin probe. This equation is used to delineate different areas of a Pourbaix diagram. One modification of this equation adds a series of permeability coefficients and usually has a coefficient of (*) 60 mV, and is used to calculate the membrane potential of a cell. This equation, which at STP has a coefficient of 2.303, can be applied to either a half cell or a full cell. The coefficient of this equation is RT divided by zF. For 10 points, name this equation used to find reduction potent
This equation is very similar to the equation relating the Fermi level of an n-type semiconductor and the standard dopant energy level. This equation is used to relate the partial pressure and the sensor response of a CHEMFET or a Kelvin probe. This equation is used to delineate different areas of a Pourbaix diagram. One modification of this equation adds a series of permeability coefficients and usually has a coefficient of (*) 60 mV, and is used to calculate the membrane potential of a cell. This equation, which at STP has a coefficient of 2.303, can be applied to either a half cell or a full cell. The coefficient of this equation is RT divided by zF. For 10 points, name this equation used to find reduction potentials, named for a German chemist.
This equation is very similar to the equation relating the Fermi level of an n-type semiconductor and the standard dopant energy level.
Nernst equation