Hydrogen Production in Methane Decomposition Reactor Using Solar Thermal Energy

被引:4
|
作者
Kim, Haneol [1 ,2 ]
Kim, Hakjoo [3 ]
Kim, Sungeun [3 ]
Lee, Sangnam [1 ]
Kim, Jongkyu [1 ]
机构
[1] Korea Inst Energy Res, New & Renewable Energy Inst, Renewable Heat Integrat Lab, Daejeon 34129, South Korea
[2] Inha Univ, Dept Mech Engn, Incheon 22212, South Korea
[3] Korea Inst Energy Res, Climate Change Res Div, Carbon Convers Res Lab, Daejeon 34129, South Korea
来源
APPLIED SCIENCES-BASEL | 2021年 / 11卷 / 21期
关键词
methane; decomposition; hydrogen; reactor; cavity; solar thermal energy; chemical reaction; CARBON; CATALYSTS; DISSOCIATION;
D O I
10.3390/app112110333
中图分类号
O6 [化学];
学科分类号
0703 ;
摘要
This study investigates the decomposition of methane using solar thermal energy as a heat source. Instead of the direct thermal decomposition of the methane at a temperature of 1200 & DEG;C or higher, a catalyst coated with carbon black on a metal foam was used to lower the temperature and activation energy required for the reaction, and to increase the yield. To supply solar heat during the reaction, a reactor suitable for a solar concentrating system was developed. In this process, a direct heating type reactor with quartz was initially applied, and a number of problems were identified. An indirect heating type reactor with an insulated cavity and a rotating part was subsequently developed, followed by a thermal barrier coating application. Methane decomposition experiments were conducted in a 40 kW solar furnace at the Korea Institute of Energy Research. Conversion rates of 96.7% and 82.6% were achieved when the methane flow rate was 20 L/min and 40 L/min, respectively.
引用
收藏
页数:16
相关论文
共 50 条
  • [41] Production of hydrogen from thermo-catalytic decomposition of methane in a fluidized bed reactor
    Ammendola, P.
    Chirone, R.
    Ruoppolo, G.
    Russo, G.
    CHEMICAL ENGINEERING JOURNAL, 2009, 154 (1-3) : 287 - 294
  • [42] A drop-tube particle-entrained flow solar reactor applied to thermal methane splitting for hydrogen production
    Abanades, Stephane
    Kimura, Hiroyuki
    Otsuka, Hiroyuki
    FUEL, 2015, 153 : 56 - 66
  • [43] Methane Decomposition Over Modified Carbon Fibers as Effective Catalysts for Hydrogen Production
    K. Sisáková
    A. Oriňak
    R. Oriňaková
    M. Strečková
    J. Patera
    A. Welle
    Z. Kostecká
    V. Girman
    Catalysis Letters, 2020, 150 : 781 - 793
  • [44] Methane Decomposition Over Modified Carbon Fibers as Effective Catalysts for Hydrogen Production
    Sisakova, K.
    Orinak, A.
    Orinakova, R.
    Streckova, M.
    Patera, J.
    Welle, A.
    Kostecka, Z.
    Girman, V
    CATALYSIS LETTERS, 2020, 150 (03) : 781 - 793
  • [45] Hydrogen Production from Methane Thermal Pyrolysis in a Microwave Heating-Assisted Fluidized Bed Reactor
    Hussain, Abdelrahman I.
    Shabanian, Jaber
    Latifi, Mohammad
    Chaouki, Jamal
    ENERGY & FUELS, 2024, 38 (21) : 21617 - 21632
  • [46] Performance investigation of the solar thermal decomposition of methane reactor considering discrete and deposited carbon particles
    Kou, Chenhui
    Jia, Shengkun
    Luo, Yiqing
    Yuan, Xigang
    FUEL, 2022, 324
  • [47] A numerical study on turquoise hydrogen production by catalytic decomposition of methane
    Tong, Sirui
    Miao, Bin
    Chan, Siew Hwa
    CHEMICAL ENGINEERING AND PROCESSING-PROCESS INTENSIFICATION, 2023, 186
  • [48] CHIRON project: Reform of methane from a cold plasma reactor with hydrogen production for desalination and energy cogeneration
    de Sena, Andre Pedral S.
    Coutinho, Osvaldo A.
    Lima, Ailton de S. S., Jr.
    ENERGY CONVERSION AND MANAGEMENT, 2014, 86 : 933 - 943
  • [49] Hydrogen Production from Methane Decomposition Using Nano Metal Oxides
    Jyoti
    Ashok, C. H.
    Srilatha, K.
    Patil, Nirdosh
    Chakra, C. H. Shilpa
    MATERIALS TODAY-PROCEEDINGS, 2017, 4 (11) : 11679 - 11689
  • [50] Ni doped carbons for hydrogen production by catalytic methane decomposition
    Zhang, Jianbo
    Jin, Lijun
    Li, Yang
    Hu, Haoquan
    INTERNATIONAL JOURNAL OF HYDROGEN ENERGY, 2013, 38 (10) : 3937 - 3947