Rail-based direct air carbon capture

被引:9
|
作者
Bachman, E. [1 ]
Tavasoli, Alexandra [2 ,3 ]
Hatton, T. Alan [3 ]
Maravelias, Christos T. [4 ]
Haites, Erik [5 ]
Styring, Peter [6 ]
Aspuru-Guzik, Alan [2 ,8 ]
MacIntosh, Jeffrey [7 ]
Ozin, Geoffrey [2 ]
机构
[1] CO2Rail Co, Austin, TX 78746 USA
[2] Univ Toronto, Dept Chem, Toronto, ON, Canada
[3] MIT, Dept Chem Engn, Cambridge, MA USA
[4] Princeton Univ, Andlinger Ctr Energy & Environm, Princeton, NJ USA
[5] Margaree Consultants Inc, Toronto, ON, Canada
[6] Univ Sheffield, Dept Chem & Biol Engn, Sheffield, England
[7] Univ Toronto, Fac Law, Toronto, ON, Canada
[8] Vector Inst Artificial Intelligence, Toronto, ON, Canada
关键词
D O I
10.1016/j.joule.2022.06.025
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
The direct capture of carbon dioxide from the environment is increasingly becoming an urgent necessity to mitigate the worst effects of climate change. However, the high energy demands require creative implementation strategies to minimize the diversion of already-stretched conventional resources toward this cause. To alleviate these issues, creative implementation strategies must be devised to lower the barrier to economic applicability of DAC systems so that they can be widely deployed. To this end, the work described herein presents innovative technology for deploying specially designed, self-contained DAC railcars on both diesel and electrified rail lines outfitted with battery arrays, CO2 direct air capture systems, compression equipment, and ancillary gear that uniquely exploits the substantial sustainable energy generated on-board the train through regenerative braking as well as from solar panels mounted on compatible railcars. The units are equipped with large intakes that extend up into the slipstream of the moving train and collect CO2 feedstock air by fluidic, ramjet-type processes thus obviating the need for the fans required by land-based systems and places no demand on energy or land resources. Unloaded daily at crew change or fueling stops into regular CO2 tank cars, the network will curate delivery of the harvested CO2 to on-route sites for permanent underground sequestration, or delivery to end-users as feedstock for the circular carbon economy. The technology will harvest meaningful quantities of CO2 at far lower costs and has the conservative potential to reach annual productivity of 0.45 gigatons by 2030, 2.9 gigatons by 2050, and 7.8 gigatons by 2075 with each car having an annual capacity of 3,000 tonnes of CO2 in the near term and more as the technology progresses.
引用
收藏
页码:1368 / 1381
页数:14
相关论文
共 50 条
  • [21] Environmental process optimisation of an adsorption-based direct air carbon capture and storage system
    Postweiler, Patrik
    Engelpracht, Mirko
    Rezo, Daniel
    Gibelhaus, Andrej
    von der Assen, Niklas
    [J]. ENERGY & ENVIRONMENTAL SCIENCE, 2024, 17 (09) : 3004 - 3020
  • [22] Membrane-Based Direct Air Capture: A Review
    Yang, Seong Baek
    Im, Kwang-Seop
    Nikita, Km
    Nam, Sang Yong
    [J]. APPLIED CHEMISTRY FOR ENGINEERING, 2024, 35 (02): : 85 - 95
  • [23] Live Tracking of Rail-Based Fish Catching on Wild Sea Surface
    Huang, Tsung-Wei
    Hwang, Jenq-Neng
    Romain, Suzanne
    Wallace, Farron
    [J]. 2016 ICPR 2ND WORKSHOP ON COMPUTER VISION FOR ANALYSIS OF UNDERWATER IMAGERY (CVAUI 2016), 2016, : 25 - 30
  • [24] Assessing rail-based environmental noise exposure using CNOSSOS-EU
    Faulkner, Jon -Paul
    Murphy, Enda
    Rice, Henry J.
    Kennedy, John
    Bourke, Eamonn
    [J]. APPLIED ACOUSTICS, 2023, 207
  • [25] Dynamic Container Routing Problem on a Rail-Based Hub-and-Spoke Network
    Elbert, Ralf
    Wu, Hongjun
    [J]. ADVANCES IN RESILIENT AND SUSTAINABLE TRANSPORT, ICPLT 2023, 2023, : 131 - 146
  • [26] Modelling Rail-Based Park and Ride with Environmental Constraints in a Multimodal Transport Network
    [J]. Kim, Inhi (inhi.kim@monash.edu), 1600, Hindawi Limited, 410 Park Avenue, 15th Floor, 287 pmb, New York, NY 10022, United States (2018):
  • [27] DIRECT-FIRED LIQUID AIR ENERGY STORAGE WITH CARBON CAPTURE
    Pryor, Owen
    Allison, Tim
    Conlon, William
    Thorp, Joseph
    [J]. PROCEEDINGS OF ASME TURBO EXPO 2023: TURBOMACHINERY TECHNICAL CONFERENCE AND EXPOSITION, GT2023, VOL 6, 2023,
  • [28] Direct Air Carbon Capture and Recovery Utilizing Alkaline Solution Circulation
    Liu, Lishan
    Gong, Feng
    Xiao, Rui
    [J]. ENERGY & FUELS, 2023, 37 (13) : 9339 - 9346
  • [29] Seize the Means of Carbon Removal: The Political Economy of Direct Air Capture
    Malm, Andreas
    Carton, Wim
    [J]. HISTORICAL MATERIALISM-RESEARCH IN CRITICAL MARXIST THEORY, 2021, 29 (01): : 3 - 48
  • [30] Atmospheric alchemy: The energy and cost dynamics of direct air carbon capture
    Ozkan, Mihrimah
    [J]. MRS ENERGY & SUSTAINABILITY, 2024,