Module optimization and array design of moisture swing direct air capture based on 2D-3D coupled analysis

被引:0
作者
He, Muhang [1 ]
Wang, Tao [1 ]
Nie, Huijian [2 ]
Fang, Haiqing [2 ]
Liu, Weishan [1 ]
Dong, Hao [1 ]
Liu, Fengsheng [1 ]
Gao, Xiang [1 ]
机构
[1] Zhejiang Univ, State Key Lab Clean Energy Utilizat, Hangzhou 310027, Peoples R China
[2] North China Power Engn Co LTD, China Power Engn Consulting Grp, Beijing 100120, Peoples R China
基金
中国国家自然科学基金;
关键词
Direct air capture; Moisture swing adsorption; Capture rate; Reactor modeling; Energy optimization; Wind field; CARBON-DIOXIDE CAPTURE; AMBIENT AIR; CO2; CAPTURE; ADSORBENT; CELLULOSE; SORBENT;
D O I
10.1016/j.enconman.2024.119062
中图分类号
O414.1 [热力学];
学科分类号
摘要
Direct Air Capture (DAC) is crucial for offsetting carbon emissions. Moisture Swing Adsorption (MSA), a DAC method switches between adsorption and desorption through humidity adjustment without relying on heat, offering significant energy-saving potential but lacking engineering solutions. Therefore, using a validated 2D-3D coupled model, a moisture swing DAC array was proposed, and multi-dimensional evaluations were used to optimize the system. Unlike the preferred capture rate around 90 % for post-combustion gas, the ultra-low CO2 concentration in the air resulted in a different rate range for DAC. Simulation indicated that although the capture rate of DAC could reach 90 %, the trade-off was energy consumption exceeding 3000 kWh/t CO2 with low adsorbent utilization. Consequently, a detailed evaluation method based on adsorbent utilization, energy consumption and cost analysis optimized the preferred capture rate range to 50-60 %, and the total energy consumption was reduced to 873.55 kWh/t CO2, including 276.33 kWh/t CO2 for capture energy and 597.22 kWh/t CO2 for vacuum-concentration energy. The lowest cost was $209.17/t CO2 at the optimal capture rate of 53.91 %. Afterwards, the Ordos Plateau, as a typical preferred sub-environment with abundant wind resources and dry climate, was choose for DAC system deployment study. Wind field simulation determined the layout of a 10000-ton array occupying only 0.298 km(2). Finally, based on savings in capture energy due to prevailing winds, regeneration energy savings from the utilization of low-grade waste heat, and the improved performance of the adsorbent itself, it was found that this DAC unit showed great potential to reduce the energy and capture costs to 564.91 kWh/t CO2 and $140.25/t CO2, and at wind speed exceeding 16.8 m/s, the unit switched to passive adsorption, further reducing energy consumption to 408.89 kWh/t CO2, with the minimum fix investment estimated at 21.71 million USD.
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页数:14
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共 41 条
  • [1] Agency IE, 2022, Direct air capture: a key technology for net zero.
  • [2] Harnessing Wind with a Passive Direct Air Capture (PDAC) System for CO2 Capture: Insights from Computational Fluid Dynamics Modeling
    Akinjide, James
    Lee, Joo-Youp
    Priye, Aashish
    [J]. INDUSTRIAL & ENGINEERING CHEMISTRY RESEARCH, 2023, 62 (44) : 18780 - 18791
  • [3] Adsorbent technologies and applications for carbon capture, and direct air capture in environmental perspective and sustainable climate action
    Ayelerua, Olusola Olaitan
    Modekweb, Helen Uchenna
    Onisuruc, Oluwatayo Racheal
    Ohoro, Chinemerem Ruth
    Akinnawo, Christianah Aarinola
    Olubambi, Peter Apata
    [J]. SUSTAINABLE CHEMISTRY FOR CLIMATE ACTION, 2023, 3
  • [4] Parallelly Aligned, Activated Carbon Coated Plates Operating as Adsorption Columns for Removing VOCs
    Bae, Jiyeol
    Kim, Suho
    Baek, Soyoung
    [J]. AEROSOL AND AIR QUALITY RESEARCH, 2022, 22 (03)
  • [5] An efficient temperature swing adsorption (TSA) process for separating CO2 from CO2/N2 mixture using Mg-MOF-74
    Ben-Mansour, Rached
    Qasem, Naef A. A.
    [J]. ENERGY CONVERSION AND MANAGEMENT, 2018, 156 : 10 - 24
  • [6] CBE Clima Tool: A free and open-source web application for climate analysis tailored to sustainable building design
    Betti, Giovanni
    Tartarini, Federico
    Nguyen, Christine
    Schiavon, Stefano
    [J]. BUILDING SIMULATION, 2024, 17 (03) : 493 - 508
  • [7] Beyond 90% capture: Possible, but at what cost?
    Brandl, Patrick
    Bui, Mai
    Hallett, Jason P.
    Dowell, Niall Mac
    [J]. INTERNATIONAL JOURNAL OF GREENHOUSE GAS CONTROL, 2021, 105
  • [8] Numerical study on a structured packed adsorption bed for indoor direct air capture
    Chen, S.
    Shi, W. K.
    Yong, J. Y.
    Zhuang, Y.
    Lin, Q. Y.
    Gao, N.
    Zhang, X. J.
    Jiang, L.
    [J]. ENERGY, 2023, 282
  • [9] Heat and mass transfer inside of a monolith honeycomb: From channel to full size reactor scale
    Cornejo, Ivan
    Nikrityuk, Petr
    Hayes, Robert E.
    [J]. CATALYSIS TODAY, 2022, 383 : 110 - 122
  • [10] Life-cycle assessment of an industrial direct air capture process based on temperature-vacuum swing adsorption
    Deutz, Sarah
    Bardow, Andre
    [J]. NATURE ENERGY, 2021, 6 (02) : 203 - 213