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Title
Nitrogen-Doped Porous Multi-Nano-Channel Nanocarbons for Use in High-Performance Supercapacitor Applications
Issued Date
2016-04
Citation
Ramakrishnan, Prakash. (2016-04). Nitrogen-Doped Porous Multi-Nano-Channel Nanocarbons for Use in High-Performance Supercapacitor Applications. ACS Sustainable Chemistry and Engineering, 4(4), 2439–2448. doi: 10.1021/acssuschemeng.6b00289
Type
Article
Author Keywords
Electrospinning ; Multichannel-carbon ; Nanocarbon ; Nitrogen-doped carbon ; Supercapacitor
Keywords
Capacitance ; Capacitors ; Carbon Nanofibers ; CARBON/CARBON SUPERCAPACITORS ; Doping (Additives) ; ELECTROCHemICAL ENERGY-STORAGE ; Electrode Material ; Electrodes ; Electrolytes ; Electrolytic Capacitors ; Electrospinning ; FUNCTIONAL-GROUPS ; Graphene ; Immiscible Polymer ; Multi-Channel ; Multichannel-Carbon ; Nano-Carbon ; Nanocarbon ; NANOMATERIALS ; Nanorods ; NANOTUBES ; Nitrogen ; NITROGEN-DOPED CARBON ; Nitrogen-Doped Carbons ; Specific Capacitance ; Super Capacitor ; Supercapacitor ; Supercapacitor Application
ISSN
2168-0485
Abstract

Herein, we report a simple strategy for the rational design of a three-dimensional carbon material, in situ nitrogen-doped porous multi-nano-channel carbon nanorods (N-MCNR), using immiscible polymers blends. A series of N-MCNR with discrete and well-connected continuous nanochannels ranging from 18 to 75 nm in size was developed. The N-MCNR developed in this work represents the good controllability of nanopores and nanochannels integrated at the nanoscale level. Three-dimensional N-MCNR nanostructured materials have been recommended as a promising electrode material for use in high-performance supercapacitors (SCs). A prototypical pouch-type symmetric SC was assembled and operated under practical application conditions. The N-MCNR-based symmetric SC device fabricated in this study delivered a maximum specific capacitance of 335 F g-1at 0.25 A g-1 with corresponding energy density of 11.2 Wh kg-1, and also exhibited an outstanding long-term cycle stability of 50 000 cycles, with 92.6% charge retention. © 2016 American Chemical Society.

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URI
http://hdl.handle.net/20.500.11750/2702
DOI
10.1021/acssuschemeng.6b00289
Publisher
American Chemical Society
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