Carbon black produced by plasma in benzene solution applied as the conductive agent in lithium secondary batteries

被引:20
作者
Choi, Go Bong [1 ]
Kim, Yoong-Ahm [1 ]
Hong, Daeseon [2 ]
Choi, Yunji [2 ]
Yeon, Sun-Hwa [2 ]
Park, Young-Kwon [3 ]
Lee, Gyeong-Geun [4 ]
Lee, Heon [4 ]
Jung, Sang-Chul [4 ]
机构
[1] Chonnam Natl Univ, Dept Polymer Engn, Gwangju 61186, South Korea
[2] Korea Inst Energy Res, ESS Lab, Daejeon 34129, South Korea
[3] Univ Seoul, Sch Environm Engn, Seoul 02504, South Korea
[4] Sunchon Natl Univ, Dept Environm Engn, Jeonnam 57922, South Korea
基金
新加坡国家研究基金会;
关键词
Carbon black; Lithium secondary batteries; Conductive agent; Plasma; Benzene; HYDROGEN-PRODUCTION; GRAPHITE; GRAPHENE; NANOTUBES; DISORDER;
D O I
10.1016/j.carbon.2023.01.042
中图分类号
O64 [物理化学(理论化学)、化学物理学];
学科分类号
070304 ; 081704 ;
摘要
When producing hydrogen and carbon black from hydrocarbons using plasma, the economic feasibility must be ensured. In this study, the produced carbon black was heat-treated at various temperatures and applied as a conductive agent in lithium secondary batteries to evaluate its potential. When plasma was discharged into the benzene solution, carbon black particles (primary particles, 20-50 nm) were generated along with hydrogen gas, and were aggregated to grow secondary particles 400-500 nm in size. When carbon black was heat-treated, the crystallinity increased as the heat-treatment temperature increased, and multiple nanoshells in the form of pentagons or hexagons were formed by continuous long multi-graphene. Carbon black produced by heat treatment at 1500 degrees C showed the highest capacity and excellent charge/discharge characteristics, which was attributed to its high electrical conductivity and specific surface area. The carbon black prepared in this study could be a good candidate to replace commercialised Super-P in the future.
引用
收藏
页码:444 / 453
页数:10
相关论文
共 39 条
[1]   A standardized methodology for the techno-economic evaluation of alternative fuels - A case study [J].
Albrecht, Friedemann G. ;
Koenig, Daniel H. ;
Baucks, Nadine ;
Dietrich, Ralph-Uwe .
FUEL, 2017, 194 :511-526
[2]   Metal oxide photoelectrodes for hydrogen generation using solar radiation-driven water splitting [J].
Aroutiounian, VM ;
Arakelyan, VM ;
Shahnazaryan, GE .
SOLAR ENERGY, 2005, 78 (05) :581-592
[3]   A comprehensive review on hydrogen production and utilization in North America: Prospects and challenges [J].
Avargani, Vahid Madadi ;
Zendehboudi, Sohrab ;
Saady, Noori M. Cata ;
Dusseault, Maurice B. .
ENERGY CONVERSION AND MANAGEMENT, 2022, 269
[4]   Formation of single and multi-walled carbon nanotubes and graphene from Indian bituminous coal [J].
Awasthi, Seema ;
Awasthi, Kalpana ;
Ghosh, A. K. ;
Srivastava, S. K. ;
Srivastava, O. N. .
FUEL, 2015, 147 :35-42
[5]   Microstructure of natural graphite flakes revealed by oxidation: Limitations of XRD and Raman techniques for crystallinity estimates [J].
Badenhorst, Heinrich .
CARBON, 2014, 66 :674-690
[6]  
김정환, 2017, [Transactions of the Korean Hydrogen and New Energy Society, 한국수소및신에너지학회논문집], V28, P85, DOI 10.7316/KHNES.2017.28.1.85
[7]  
Basak B, 2020, RENEW SUST ENERG REV, V133, DOI [10.1016/j.rscr.2020.110338, 10.1016/j.rser.2020.110338]
[8]   Unerroric of control of mutual compliance of the efficiency of hydrogen engines of unmanned vehicles in the conditions of mass production [J].
Bulychev, N. A. ;
Burova, A. Yu .
INTERNATIONAL JOURNAL OF HYDROGEN ENERGY, 2022, 47 (63) :26789-26797
[9]   Quantifying Carbon Edge Sites on Depressing Hydrogen Evolution Reaction Activity [J].
Choi, Go Bong ;
Hong, Seungki ;
Wee, Jae-Hyung ;
Kim, Doo-Won ;
Seo, Tae Hoon ;
Nomura, Keita ;
Nishihara, Hirotomo ;
Kim, Yoong Ahm .
NANO LETTERS, 2020, 20 (08) :5885-5892
[10]   Characterizing Graphene, Graphite, and Carbon Nanotubes by Raman Spectroscopy [J].
Dresselhaus, M. S. ;
Jorio, A. ;
Saito, R. .
ANNUAL REVIEW OF CONDENSED MATTER PHYSICS, VOL 1, 2010, 1 :89-108