This equation is used to relate the partial pressure and the sensor response of a CHEMFET or a Kelvin probe.
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