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The breakdown field strength, energy storage efficiency, and energy storage density of the composites were improved. High energy storage density and
The compromise of contradictive parameters, polarization, and breakdown strength, is necessary to achieve a high energy storage performance. The two can be tuned, regardless of material types, by controlling microstructures: amorphous states
An ultrahigh discharged energy density of 30.55 J cm −3 and an outstanding discharged efficiency of 80.26% can be obtained in the optimized composition with the inner layer
The energy density of 8.46 J/cm 3at 340 kV/mm was obtained for 4 vol % CCTO@AlO3NFs/PVDF nanocomposites, which is 230% larger than that of PVDF (3.68
Fluorine and Nitrogen Dual-Doped Porous Carbon Nanosheet-Enabled Compact Electrode Structure for High Volumetric Energy Storage. Tianyi Zhu, Siliang Liu, Kening Wan, Chao
Polymer-based dielectrics have been attracted much attention to flexible energy storage devices due to their rapid charge–discharge rate, flexibility, lightness and compactness.
Encapsulating ferroelectric ceramic nanofillers into polymer matrix with various architectures has been demonstrated as an effective strategy for ultrahigh energy
The fluorite-structural ferroelectric (FE) and antiferroelectric (AFE) materials exhibit promising applications in memories and energy storage devices.
Energy storage is an enabling technology for various applications such as power peak shaving, renewable energy utilization, enhanced building energy systems,
An ultrahigh breakdown field strength of 889.6 kV/mm is achieved in the BN-PMMA/[email protected]%PCBM-BN film, which also delivers a maximum discharged
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