MIL-160 as an Adsorbent for Atmospheric Water Harvesting

被引:22
|
作者
Solovyeva, Marina [1 ]
Krivosheeva, Irina [1 ,2 ]
Gordeeva, Larisa [1 ]
Aristov, Yuri [1 ]
机构
[1] Boreskov Inst Catalysis, Ac Lavrentiev Av 5, Novosiborsk 630055, Russia
[2] Novosibirsk State Univ, Dept Nat Sci, Novosibirsk 630090, Russia
基金
俄罗斯基础研究基金会;
关键词
adsorptive water harvesting from the atmosphere; metal-organic frameworks; MIL-160; water vapor adsorption; specific water productivity; specific energy consumption; METAL-ORGANIC FRAMEWORKS; CLIMATE-CHANGE; AIR; EXTRACTION; ADSORPTION; RESOURCES; SORBENTS; DESIGN; DEVICE; HOT;
D O I
10.3390/en14123586
中图分类号
TE [石油、天然气工业]; TK [能源与动力工程];
学科分类号
0807 ; 0820 ;
摘要
Nowadays, the rapidly growing population, climate change, and environment pollution put heavy pressure on fresh water resources. The atmosphere is the immense worldwide and available water source. The Adsorptive Water Harvesting from the Atmosphere (AWHA) method is considered a promising alternative to desalination technologies for remote arid regions. The development of novel adsorbents with advanced water-adsorption properties is a prerequisite for practical realization of this method. Metal-organic frameworks (MOFs) are a novel class of porous crystalline solids that bring a great potential for AWHA due to their extremely high specific surface area, porosity, and tailored adsorption properties. This work addresses MIL-160 as a water adsorbent for AWHA. The water-adsorption equilibrium of MIL-160 was studied by volumetric method, the isosteric heat of adsorption was calculated, and finally, the potential of MIL-160 for AWHA was evaluated for climatic conditions of the deserts of Saudi Arabia, Mongolia, the Sahara, Atacama, and Mojave as reference arid regions. MIL-160 was shown to ensure a maximum specific water productivity of 0.31-0.33 g(H2O)/g(ads) per cycle. High fractions of water extracted (0.90-0.98) and collected (0.48-0.97) could be achieved at a regeneration temperature of 80 degrees C with natural cooling of the condenser by ambient air. The specific energy consumption for water production varied from 3.5 to 6.8 kJ/g, which is acceptable if solar heat is used to drive the desorption. The AWHA method employing MIL-160 is a promising way to achieve a fresh water supply in remote arid areas.
引用
收藏
页数:15
相关论文
共 50 条
  • [21] Hygroscopic metal-organic framework MIL-160(Al): In-situ time-dependent ATR-FTIR and gravimetric study of mechanism and kinetics of water vapor sorption
    Henry, Barrington
    Samokhvalov, Alexander
    SPECTROCHIMICA ACTA PART A-MOLECULAR AND BIOMOLECULAR SPECTROSCOPY, 2022, 267
  • [22] A binary salt composite adsorbent material for solar-driven sorption-based atmospheric water harvesting
    Liu, Qianwen
    Qin, Caiyan
    Zhu, Qunzhi
    Wu, Wenjing
    Wang, Xiaomeng
    INTERNATIONAL COMMUNICATIONS IN HEAT AND MASS TRANSFER, 2024, 155
  • [23] Biotemplate Replication of Novel Mangifera indica Leaf (MIL) for Atmospheric Water Harvesting: Intrinsic Surface Wettability and Collection Efficiency
    Foday Jr, Edward Hingha
    Sesay, Taiwo
    Koroma, Emmanuel Bartholomew
    Kanneh, Anthony Amara Golia Seseh
    Chineche, Ekeoma Bridget
    Jalloh, Alpha Yayah
    Koroma, John Mambu
    BIOMIMETICS, 2022, 7 (04)
  • [24] Probing the limits of linker substitution in aluminum MOFs through water vapor sorption studies: mixed-MOFs instead of mixed-linker CAU-23 and MIL-160 materials
    Schluesener, Carsten
    Jordan, Dustin Nits
    Xhinovci, Mergime
    Ntep, Tobie J. Matemb Ma
    Schmitz, Atexa
    Giesen, Beatriz
    Janiak, Christoph
    DALTON TRANSACTIONS, 2020, 49 (22) : 7373 - 7383
  • [25] Thermodynamic limits of atmospheric water harvesting
    Rao, Akshay K.
    Fix, Andrew J.
    Yang, Yun Chi
    Warsinger, David M.
    ENERGY & ENVIRONMENTAL SCIENCE, 2022, 15 (10) : 4025 - 4037
  • [26] Progress and Expectation of Atmospheric Water Harvesting
    Tu, Yaodong
    Wang, Ruzhu
    Zhang, Yannan
    Wang, Jiayun
    JOULE, 2018, 2 (08) : 1452 - 1475
  • [27] Porous Materials for Atmospheric Water Harvesting
    Zhang, Shuai
    Fu, Jingru
    Xing, Guolong
    Zhu, Weidong
    Ben, Teng
    CHEMISTRYOPEN, 2023, 12 (05)
  • [28] Chemistries and materials for atmospheric water harvesting
    Lei, Chuxin
    Guan, Weixin
    Zhao, Yaxuan
    Yu, Guihua
    CHEMICAL SOCIETY REVIEWS, 2024, 53 (14) : 7328 - 7362
  • [29] Reviews of atmospheric water harvesting technologies
    Tu, Rang
    Hwang, Yunho
    ENERGY, 2020, 201
  • [30] Materials and devices for atmospheric water harvesting
    Meng, Yongtao
    Dang, Yanliu
    Suib, Steven L.
    CELL REPORTS PHYSICAL SCIENCE, 2022, 3 (07):