VK= RT/ZF * log [I+]out/[I+]in
According to this equation, the equilibrium potential for potassium (VK) is equal to the product of the gas constant (R) and the temperature in degrees Kelvin (T) divided by the product of the valence of potassium (Z) and the Faraday constant (F) multiplied by the natural log of the quotient derived from the external and internal concentrations of potassium. Thus,
it is not an equation (there no equality in it!)
Solve the equation for x, and enter your answer in the box below.
variable equation solve it test it
Use a variable to represent the unknown. 'Translate' the words to math symbols and write an equation to solve. Solve the equation. Check.
There is no equation to solve, only an expression.
Nernst Equation
nernst
Yes, the Nernst equation can be used at any temperature as long as the appropriate constants for the reaction are known. The equation allows for the calculation of cell potential at different temperatures by incorporating the temperature-dependent terms.
Bror Nernst's birth name is Bror Otto Fredrik Nernst.
Sure. You can always 'solve for' a variable, and if it happens to be the only variable in the equation, than that's how you solve the equation.
you don't answer an equation, you solve an equation
The simple answer can be given with Nernst Equation in Potentiometric Titration where temperature plays a key role.
Walther Nernst was born on June 25, 1864.
Walther Nernst was born on June 25, 1864.
Bror Nernst died on June 2, 1927.
the concentration of the specific ion inside and outside the cell, as well as the temperature and the valence of the ion. The Nernst equation is used to determine the equilibrium potential for a particular ion across a membrane.
In the Nernst Distribution Law, temperature is assumed to be constant because the equilibrium constant is temperature-dependent. By keeping the temperature constant, the ratio of concentrations of products to reactants, as calculated by the Nernst Equation, remains valid under the assumption of equilibrium. Any changes in temperature can affect the equilibrium constant and therefore disrupt the accuracy of the Nernst Distribution Law.