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The results indicate that these composites are the potential materials for high energy density capacitors.
The excellent electrochemical performance made the hybrid a promising electrode material for electrochemical capacitors.
Metallized prototype capacitors show promising performance with energy density above 5 J/cm3.
The excellent electrochemical performance makes the composite a promising electrode material for electrochemical capacitors.
These results make this composite to be a good candidate for electrochemical capacitors applications.
These nanocomposites could be promising electrode materials for high-performance electrochemical capacitors.
These results show that the composite film is a promising candidate for high energy electrochemical capacitors.
These properties are highly desirable for high power and long cycle life electrochemical capacitors.
Electrochemical capacitors are potential devices that could help bringing about major advances in future energy storage.
Capacitors made of this material offer excellent frequency characteristics, high reliability, high breakdown voltage and excellent volumetric efficiency.
Therefore, this remarkable performance suggests its promising application as an efficient electrode material for electrochemical capacitors.
This unique microstructure electrode material has a promising application for capacitors in future.
Na@C would be a very promising electrode material for commercial electric double-layer capacitors.
Our results show that the electrocaloric properties of such capacitors can be systematically tuned by applying an external stress.
These characteristics indicate that these newly developed films may find important application for electrochemical capacitors.
It is found that the technique gives reliable results for locating switched capacitors.
Journal ArticleDOI
M. Bhushan, R.W. Newcomb 
435 Citations
Fabrication techniques indicate that it is easier to obtain earthed capacitors than unearthed ones in integrated circuits.
Larger die and server products requiring high performance power delivery solutions can also benefit substantially from embedded capacitors.
It exhibits a great potential as an advanced electrode material in the field of high-performance electrochemical capacitors.
These discoveries offer important mechanistic insights for the design of advanced electrochemical capacitors.
The results show that the electrolytes have significant influence on the capacitors’ performances.
These inexpensive capacitors might find use as electrically controlled ferromagnets.
Such high value of C s locates this material among very good polymeric redox pseudo-capacitors.
These results suggest that the fabricated electrode material has huge potential as a novel electrode material for electrochemical capacitors.
When used as electrode materials, these DMOF capacitors exhibited excellent electrochemical performance.
The dynamic properties of this material should be superior to those of the capacitors with micropores.
The fabricated capacitors have potential for applications in embedded technology in the radio frequency.
From the viewpoints of structural performance, safety, service life and high frequency capability, structural dielectric capacitors are closer to commercialization readiness than structural supercapacitors.