V13_Electrolyte-Electrode Interface in Microfluidic Systems Quiz

The equilibrium potential is also known as the open circuit potential.

The equilibrium potential is the point at which there is maximum current flow through the interface.

Without an energy supply from outside, charge transfer across the electrolyte-electrode interface is still possible.

Ionic current can be converted to electric current across the interface of a metallic electrode submerged in an electrolyte.

The Nernst Equation is primarily used to describe the behavior of gases in a microfluidic system.

The interface between an electrode and electrolyte results in the formation of an electrical double layer (EDL).

The Nernst Equation describes the relationship between the voltage across a metal electrode and the reference electrode.

Bio-MEMS stands for Biological Micro Electro Mechanical Systems.

The interface between a metal working electrode and electrolyte does not involve specific adsorption of ions or polar molecules.

Electrolyte-Electrode Interface Lecture focuses on the resistance of the metal electrodes.

Microfluidic Systems play a crucial role in the field of Bio-MEMS.

The Butler-Volmer equation applies to all real electrochemical systems, regardless of the presence of diffusion processes.

Rct, the charge transfer resistance, depends only on the kind of reaction and temperature.

The Electrode Double-Layer (EDL) capacitance depends on electrode roughness and adsorption of impurities.

In the Randles Model from 1947, Rs stands for Resistance Solution.

The overvoltage in the Butler-Volmer equation is calculated as E - Eeq.

The Cathodic current at the Electrolyte-Electrode Interface can have an alpha value of 0.25.