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Electrochemical capacitors are potential devices that could help bringing about major advances in future energy storage.
These results show that the PB is a promising candidate for aqueous sodium-ion capacitors.
Hybrid-capacitors have the potential to synergistically combine the benefits of both electrochemical double layer capacitors (EDLCs) (long cycle life) and Faradaic-capacitors (high capacitance).
Proceedings ArticleDOI
Barbaros Kirisken, H. Fatih Ugurdag 
17 Apr 2014
22 Citations
Electrolytic capacitors must be used because of size and capacitance, unit price, and to withstand voltage.
Capacitors constructed with these electrodes are predicted to be significantly smaller than aluminum electrolyte capacitors that they could functionally replace plus be manufactured using standard semiconductor process equipment, creating interesting commercial opportunities.
This represents a significant improvement compared to commercially available multilayer capacitors.
The results show that the electrolytes have significant influence on the capacitors’ performances.
Despite concerns for nonlinearity of the capacitors, these results suggest that this capacitor structure could be used in LNA's with a large dynamic range.
These results indicate the feasibility of producing E/E electrodes and their promise as future materials in hybrid-capacitors.

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