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Carbon nanotubes are a very attractive material for power source applications due to their high conductivity, chemical stability and excellent ability to form percolation clusters in an electrode structure [1]. Activated carbon is a more traditional and efficient electrode material, which allows specific capacitance of about 100 F/g for organic electrolyte EDLC and 150–200 F/g for aqueous EDLC [2]. So high surface area can be considered as the main advantage of activated carbon as an electrode material, but high surface area usually means rough surface, and, because of large structure defects amounts, low conductivity. This leads to loss of energy, stored in EDLC and low specific power, which is the most important EDLC parameter. To increase specific power, carbon nanotubes or other conductive, but chemically-stable, electrolyte solution-soluble additive must be used in the electrode structure.

Electrodes of supercapacitors from nanoporous carbon with nanocarbon additives