Single-step hydrogen production from NH3, CH4, and biogas in stacked proton ceramic reactors

被引:82
作者
Clark, Daniel [1 ]
Malerod-Fjeld, Harald [1 ]
Budd, Michael [1 ]
Yuste-Tirados, Irene [1 ,2 ]
Beeaff, Dustin [1 ]
Aamodt, Simen [1 ]
Nguyen, Kevin [1 ]
Ansaloni, Luca [3 ]
Peters, Thijs [3 ]
Vestre, Per K. [1 ]
Pappas, Dimitrios K. [1 ]
Valls, Maria, I [4 ]
Remiro-Buenamanana, Sonia [4 ]
Norby, Truls [2 ]
Bjorheim, Tor S. [1 ]
Serra, Jose M. [4 ]
Kjolseth, Christian [1 ]
机构
[1] CoorsTek Membrane Sci AS, N-0349 Oslo, Norway
[2] Univ Oslo, Ctr Mat Sci & Nanotechnol, Dept Chem, N-0316 Oslo, Norway
[3] SINTEF Ind, Dept Sustainable Energy Technol, N-0314 Oslo, Norway
[4] Univ Politecn Valencia, Inst Tecnol Quim, Consejo Super Invest Cient, Valencia 46022, Spain
关键词
THERMAL-EXPANSION; MEMBRANE REACTOR; ELECTRICAL-CONDUCTIVITY; ELECTROCHEMICAL-CELLS; SPINEL COATINGS; FUEL-CELLS; METHANE; INTERCONNECT; STABILITY; GAS;
D O I
10.1126/science.abj3951
中图分类号
O [数理科学和化学]; P [天文学、地球科学]; Q [生物科学]; N [自然科学总论];
学科分类号
07 ; 0710 ; 09 ;
摘要
Proton ceramic reactors offer efficient extraction of hydrogen from ammonia, methane, and biogas by coupling endothermic reforming reactions with heat from electrochemical gas separation and compression. Preserving this efficiency in scale-up from cell to stack level poses challenges to the distribution of heat and gas flows and electric current throughout a robust functional design. Here, we demonstrate a 36-cell well-balanced reactor stack enabled by a new interconnect that achieves complete conversion of methane with more than 99% recovery to pressurized hydrogen, leaving a concentrated stream of carbon dioxide. Comparable cell performance was also achieved with ammonia, and the operation was confirmed at pressures exceeding 140 bars. The stacking of proton ceramic reactors into practical thermo-electrochemical devices demonstrates their potential in efficient hydrogen production.
引用
收藏
页码:390 / +
页数:60
相关论文
共 49 条
  • [1] Application of a Pd-Ru composite membrane to hydrogen production in a high temperature membrane reactor
    Abu El Hawa, Hani W.
    Paglieri, Stephen N.
    Morris, Craig C.
    Harale, Aadesh
    Way, J. Douglas
    [J]. SEPARATION AND PURIFICATION TECHNOLOGY, 2015, 147 : 388 - 397
  • [2] A 5 x 5 cm2 protonic ceramic fuel cell with a power density of 1.3 W cm-2 at 600 °C
    An, Hyegsoon
    Lee, Hae-Weon
    Kim, Byung-Kook
    Son, Ji-Won
    Yoon, Kyung Joong
    Kim, Hyoungchul
    Shin, Dongwook
    Ji, Ho-Il
    Lee, Jong-Ho
    [J]. NATURE ENERGY, 2018, 3 (10): : 870 - 875
  • [3] Electrification of the chemical industry
    Barton, John L.
    [J]. SCIENCE, 2020, 368 (6496) : 1181 - 1182
  • [4] Braun R. J., 2019, ECS Transactions, V91, P997, DOI 10.1149/09101.0997ecst
  • [5] California Air Resources Board, 2020, LOW CARB FUEL STAND
  • [6] California Air Resources Board, 2018, CA GREET3 0 LOOK TAB
  • [7] California Air Resources Board, 2017, ETH TRANSP FUEL
  • [8] H2 production via ammonia decomposition in a catalytic membrane reactor
    Cechetto, Valentina
    Di Felice, Luca
    Medrano, Jose A.
    Makhloufi, Camel
    Zuniga, Jon
    Gallucci, Fausto
    [J]. FUEL PROCESSING TECHNOLOGY, 2021, 216
  • [9] High purity, self-sustained, pressurized hydrogen production from ammonia in a catalytic membrane reactor
    Cerrillo, Jose L.
    Morlanes, Natalia
    Kulkarni, Shekhar R.
    Realpe, Natalia
    Ramirez, Adrian
    Katikaneni, Sai P.
    Paglieri, Stephen N.
    Lee, Kunho
    Harale, Aadesh
    Solami, Bandar
    Jamal, Aqil
    Sarathy, S. Mani
    Castano, Pedro
    Gascon, Jorge
    [J]. CHEMICAL ENGINEERING JOURNAL, 2022, 431
  • [10] Protonic ceramic electrochemical cells for hydrogen production and electricity generation: exceptional reversibility, stability, and demonstrated faradaic efficiency
    Choi, Sihyuk
    Davenport, Timothy C.
    Haile, Sossina M.
    [J]. ENERGY & ENVIRONMENTAL SCIENCE, 2019, 12 (01) : 206 - 215