Nitrogen-Doped Seamless Activated Carbon Electrode with Excellent Durability for Electric Double Layer Capacitor

The electric double layer capacitor (EDLC) using a seamless activated carbon electrode shows an excellent durability against high voltage charging compared to the conventional activated carbon composite electrode. In this study, the authors focused on nitrogen-doping as a surface modification to fur...

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Veröffentlicht in:Journal of the Electrochemical Society 2020-04, Vol.167 (6), p.60523
Hauptverfasser: Tagaya, Tomomi, Hatakeyama, Yoshikiyo, Shiraishi, Soshi, Tsukada, Hidehiko, Mostazo-López, María José, Morallón, Emilia, Cazorla-Amorós, Diego
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container_issue 6
container_start_page 60523
container_title Journal of the Electrochemical Society
container_volume 167
creator Tagaya, Tomomi
Hatakeyama, Yoshikiyo
Shiraishi, Soshi
Tsukada, Hidehiko
Mostazo-López, María José
Morallón, Emilia
Cazorla-Amorós, Diego
description The electric double layer capacitor (EDLC) using a seamless activated carbon electrode shows an excellent durability against high voltage charging compared to the conventional activated carbon composite electrode. In this study, the authors focused on nitrogen-doping as a surface modification to further improve the electrochemical durability of the seamless electrode. The EDLC using the nitrogen-doped seamless activated carbon electrode achieved the volumetric capacitance of 18 F cm−3 (based on the galvanostatic method, 80 mA g−1, 0-2.5 V, 40 °C) and the capacitance retention of 83% after the float durability test (3.5 V, 70 °C, 100 h) using a typical propylene carbonate electrolyte. The volumetric capacitance is comparable to that (14 F cm−3) of the conventional activated carbon, such as YP50F, and the retention is much higher than that (76%) of the pristine seamless activated carbon. The authors concluded that the extremely excellent durability of the nitrogen-doped seamless activated carbon electrode is due to (i) the stable electric network arising from the binder-less monolithic structure and (ii) nitrogen surface functionalities that suppresses micropore blocking and internal resistance change caused by electrochemical decomposition deposits. (184 words).
doi_str_mv 10.1149/1945-7111/ab8403
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The authors concluded that the extremely excellent durability of the nitrogen-doped seamless activated carbon electrode is due to (i) the stable electric network arising from the binder-less monolithic structure and (ii) nitrogen surface functionalities that suppresses micropore blocking and internal resistance change caused by electrochemical decomposition deposits. 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